Blatant Angling

 Ye,Fd,W,Lb,Se,Jb=bit32.bxor,,,  Cb,Yd,Bb,zc,fe,ka,w_,Ne,ab,ue,qd,b_,ta,yb,nf,Xe,ra,Gc,jf,Ka,pc,Nd,z,Ya,xe,Sb,_e,sb,q,R,af,Qc,jd,Kb,rc,zf,Df,dd,Z,Mc,Ke,Tc,Cc,xc;ab=(());Ke,Nd,qd=(.char),(.byte),(bit32 .bxor);Tc=(Ga,c) Ta,Vb,sd,za,hc,pe,Qf,re_;Ta,sd={},(ub,nb,Wc)Ta[ub]=(Wc,)-(nb,) Ta[ub];pe=Ta[] (,,)  pe<   pe<  re_=Vb  Qf~=Qf  pe=  pe=   pe<=   hc  hc=;Vb,pe,za,Qf=,Ta[] (,,),,(#Ga-)+   pe>  pe,hc=Ta[-] (-,,),hc..(((Ga,(re_-)+),(c,(re_-)%#c+))) pe<=  Vb=Vb+za;re_=Vb  Vb~=Vb  pe=Ta[-] (-,,) pe=   (za>=  Vb>Qf)((za<  za~=za) Vb<Qf) pe=Ta[] (,,) pe=Ta[-] (-,,)   pe== ;Sb=();yb=((...){[]={...},[]=(,...)});jf=((()  (ca,wc,E) wc>E     ca[wc],(ca,wc+,E)  qe )());Yd,Df=(.gsub),(.char);Xe=((o_)o_=(o_,,)(o_:(,(a_)(a_==)   V,I=,(():(a_)-) ib=,,-  V=V..(I%^ib-I%^(ib-)> )  V ):(,(A)(#A~=)   Pa=  xa=,  Pa=Pa+(A:(xa,xa)== ^(-xa) )  (Pa))));Gc,Cb,fe,zc,zf,Z,_e,Ne=ab[(,)][(,)],ab[(,)][(,)],ab[(,)][(,)],ab[(,)][(,)],ab[(,)][(,)],ab[(,)][(,)],ab[(,)][(,)],{};b_=((Rd) rd=Ne[Rd] rd   rd   xb,Ld,Hc,od,cc=(,),(,),,{}, Hc<=#Rd   Hb=(Rd,Hc);Hc=Hc+  xd=,()+   nd=  (Hb,)~=   Hc<=#Rd  nd=(Rd,Hc,Hc);Hc=Hc+    (Hc+<=#Rd)   ea=((,),Rd,Hc);Hc=Hc+  Xb,Jc=#cc-(ea,),(ea,(Ld-))+;nd=(cc,Xb,Xb+Jc-)  Hb=(Hb,) nd  od[#od+]=nd;cc=(cc..nd,-xb)    de=(od);Ne[Rd]=de  de );Mc=(() Ac,aa,Ge,Ib,s_,Ze,ee,Ba,Yc,hb,Mb,vf=ab[(,)][(,)],ab[(,)][(,)],ab[(,)][(,)],ab[(,)][(,)],ab[(,)][(,)],ab[(,)][(,)],ab[(,)][(,)],ab[(,)][(,)],ab[(,)][(,)],ab[(,)][(,)],ab[(,)][(,)],ab[(,)][(,)]  (ha,Rc,Uc,O,Dc) ac,qa,of,_a=ha[Rc],ha[Uc],ha[O],ha[Dc] wd;ac=(ac+qa,);wd=(_a,ac);_a=(((wd,),(wd,)),);of=(of+_a,);wd=(qa,of);qa=(((wd,),(wd,)),);ac=(ac+qa,);wd=(_a,ac);_a=(((wd,),(wd,)),);of=(of+_a,);wd=(qa,of);qa=(((wd,),(wd,)),);ha[Rc],ha[Uc],ha[O],ha[Dc]=ac,qa,of,_a  ha   wf,ve={,,,,,,,,,,,,,,,},{,,,,,,,,,,,,,,,} p=(Cd,eb,Va)wf[],wf[],wf[],wf[]=,,,  Nb=,()+  wf[(Nb-)+]=Cd[(Nb-)] wf[]=eb  Jd=,()+  wf[(Jd-)+]=Va[(Jd-)]  Vc=,()+  ve[(Vc-)]=wf[(Vc-)]  me=,()+  (ve,,,,);(ve,,,,);(ve,,,,);(ve,,,,);(ve,,,,);(ve,,,,);(ve,,,,);(ve,,,,)  Mf=,()+  wf[(Mf-)]=(wf[(Mf-)]+ve[(Mf-)],)  wf    (pd,Ia,If,De,we) id=#De-we+  (id<)   ge=(De,we);De=ge..((,),-id);we=  ab[(,)](#De>=) mf,je=(((,),De,we)),(pd,Ia,If) Pf=,()+  mf[(Pf-)]=(mf[(Pf-)],je[(Pf-)])  gd=((,),(mf)) (id<)  gd=(gd,,id)  gd    (ie) Sa= Fb=,(#ie)+  Sa=Sa..ie[(Fb-)]  Sa    (Aa,yd,Ef,ef) Ie,Td,Ja,Md=(((,),Aa)),(((,),Ef)),{},  Md<=#ef  (Ja,(Ie,yd,Td,ef,Md));Md=Md+;yd=yd+   (Ja)  (Da,Ae,qf) (qf,,Ae,Da) )();nf=(() qb,tb,oc,hf,Oe,sa,Za,ic,Ff,e_,Fe=ab[(,)][(,)],ab[(,)][(,)],ab[(,)][(,)],ab[(,)][(,)],ab[(,)][(,)],ab[(,)][(,)],ab[(,)][(,)],ab[(,)][(,)],ab[(,)][(,)],ab[(,)][(,)],ab[(,)][(,)]  (ya,Qe) Rf,H=(ya,Qe),(ya,-Qe) ((Rf,H),)  be=(m) Ea={,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,}  (jb) Hd=#jb  He=Hd*;jb=jb..(,) va=-((Hd+)%) va~=  jb=jb..((,),va) jb=jb..(((He,),),((He,),),((He,),),((He,),),((He,),),((He,),),((He,),),(He,)) jb    (Pb) g={} B=,(#Pb)+,  (g,Pb[(,)](Pb,(B-),(B-)+))  g    (Wa,lb) K={} Nf=,()+   ((Nf-)<=)  uc,ne=((K[(Nf-)-],),(K[(Nf-)-],),(K[(Nf-)-],)),((K[(Nf-)-],),(K[(Nf-)-],),(K[(Nf-)-],));K[(Nf-)]=(K[(Nf-)-]+uc+K[(Nf-)-]+ne,) K[(Nf-)]=(((Wa,((Nf-)-)*+),),((Wa,((Nf-)-)*+),),((Wa,((Nf-)-)*+),),(Wa,((Nf-)-)*+))   ae,C,h,bb,Ve,jc,bc,pb=(lb) wb=,()+   ga,Be=((Ve,),(Ve,),(Ve,)),((Ve,jc),((Ve),bc)) Zd,gf,da=(pb+ga+Be+Ea[(wb-)]+K[(wb-)],),((ae,),(ae,),(ae,)),((ae,C),(ae,h),(C,h)) y=(gf+da,);pb=bc;bc=jc;jc=Ve;Ve=(bb+Zd,);bb=h;h=C;C=ae;ae=(Zd+y,)  (lb[]+ae,),(lb[]+C,),(lb[]+h,),(lb[]+bb,),(lb[]+Ve,),(lb[]+jc,),(lb[]+bc,),(lb[]+pb,) m=(m) cb,sc,kc=(m),{,,,,,,,}, Ic,tc  ab[(,)](cb) sc={(tc,sc)}  Pe,Ca  ab[(,)](sc) kc=kc..(((Ca,),));kc=kc..(((Ca,),));kc=kc..(((Ca,),));kc=kc..((Ca,))  kc   be )() Xd,Le,Ab,yf,Lc,U,Fa,Vd,db,Oc,Tb,Xc,_b,Te,he,gc,Yb,lc,Rb,lf,yc,pa,La,F,Of,u_,pf,Ha,X,Me=ab[(,)],ab[(,)],ab[(,)],ab[(,)],ab[(,)],ab[(,)],ab[(,)],ab[(,)][(,)],ab[(,)][(,)],ab[(,)][(,)],ab[(,)][(,)],ab[(,)][(,)],ab[(,)][(,)],ab[(,)][(,)],ab[(,)][(,)],ab[(,)][(,)],ab[(,)][(,)],ab[(,)][(,)],ab[(,)][(,)],ab[(,)][(,)],ab[(,)][(,)],ab[(,)],ab[(,)][(,)],ab[(,)][(,)],ab[(,)][(,)],ab[(,)][(,)],ab[(,)][(,)],ab[(,)][(,)],ab[(,)][(,)],{[]={},[]={},[]={{,,},{,,},{,,},{,,},{,,},{,,},{,,},{,,},{,,},{,,},{,,},{,,},{,,},{,,},{,,},{,,},{,,},{,,},{,,},{,,},{,,},{,,},{,,},{,,},{,,},{,,},{,,},{,,},{,,},{,,},{,,},{,,},{,,},{,,},{,,},{,,},{,,},{,,},{,,},{,,},{,,},{,,},{,,},{,,},{,,},{,,},{,,},{,,},{,,},{,,},{,,},{,,},{,,},{,,},{,,},{,,},{,,},{,,},{,,},{,,},{,,},{,,},{,,},{,,},{,,},{,,},{,,},{,,},{,,},{,,},{,,},{,,},{,,},{,,},{,,},{,,},{,,},{,,},{,,},{,,},{,,},{,,},{,,},{,,},{,,},{,,},{,,},{,,},{,,},{,,},{,,},{,,},{,,},{,,},{,,},{,,},{,,},{,,},{,,},{,,},{,,},{,,},{,,},{,,},{,,},{,,},{,,},{,,},{,,},{,,},{,,},{,,},{,,},{,,},{,,},{,,},{,,},{,,},{,,},{,,},{,,},{,,},{,,},{,,},{,,},{,,},{,,},{,,},{,,},{,,},{,,},{,,},{,,},{,,},{,,},{,,},{,,},{,,},{,,},{,,},{,,},{,,},{,,},{,,},{,,},{,,},{,,},{,,},{,,},{,,},{,,},{,,},{,,},{,,},{,,},{,,},{,,},{,,},{,,},{,,},{,,},{,,},{,,},{,,},{,,},{,,},{,,},{,,},{,,},{,,},{,,},{,,},{,,},{,,},{,,},{,,},{,,},{,,},{,,},{,,},{,,},{,,},{,,},{,,},{,,},{,,},{,,},{,,},{,,},{,,},{,,},{,,},{,,},{,,},{,,},{,,},{,,},{,,},{,,},{,,},{,,},{,,},{,,},{,,},{,,},{,,},{,,},{,,},{,,},{,,},{,,},{,,},{,,},{,,},{,,},{,,},{,,},{,,},{,,},{,,},{,,},{,,},{,,},{,,},{,,},{,,},{,,},{,,},{,,},{,,},{,,},{,,},{,,},{,,},{,,},{,,},{,,},{,,},{,,},{,,},{,,},{,,},{,,},{,,},{,,},{,,},{,,},{,,},{,,},{,,},{,,},{,,},{,,},{,,},{,,},{,,}}} Lf=((Qb) Pd=Me[][Qb] Pd   Pd   Wb=   () D,Fc,md,Zb,Q,if_,kd,P,Sc,Db,i_,d_,wa,Gb,xf,rf,Kd,k,oe,ad,Ue,sf,Jf,cd,Af,Gf,_f,ye,ff,t_,Qd,Ed;Gb,_f=(S,Od,Qa)_f[Od]=(Qa,)-(S,) _f[Od],{};d_=_f[] (,,)  d_<=   d_<   d_>=   d_>   d_>=   d_>  t_,d_=(),  d_>=   d_<=  d_=_f[-] (,-,)  (Db>=  Qd>rf)((Db<  Db~=Db) Qd<rf) d_=_f[-] (,-,) d_=    d_,Af,oe=_f[-] (,-,),P,   d_>=   d_<=  i_,d_,xf=oe,_f[-] (,-,),  Zb,d_=(Fc,),_f[-] (,-,)   d_<=  Fc=Qd[(Zb-)];Kd=Fc[](Kd==) d_=_f[] (,,)  d_=_f[-] (,-,)  d_=_f[] (,,) d_,wa,k,Ed=_f[-] (,-,),,,(Ue)+   d_<   d_<=   d_<  Zb=k  Ed~=Ed  d_=_f[-] (,-,) d_=   d_<=  d_=_f[] (,,)  d_,Fc[]=_f[] (,,),Gf[Fc[]+]  ff=Fc[];t_,kd=(ff,),((ff,),);Fc[]=Gf[kd+];Fc[]=t_  t_==  d_=_f[-] (,-,) (t_==) d_=_f[-] (,-,)  d_=_f[-] (,-,)  d_=_f[] (,,)  d_>   d_<=  sf=((,),Qb,Wb);d_,Wb=_f[-] (,-,),Wb+  d_,Jf=,   d_>  k=k+wa;Zb=k  k~=k  d_=  d_=   d_<=  i_=((,),Qb,Wb);Wb,d_=Wb+,_f[-] (,-,) d_,ff=_f[] (,,),(t_[],,t_[])  d_>=   d_>   d_>  if_,d_=(Ue,-),_f[] (,,)  d_>  Fc=Zb;Q=(Q,((Fc,),(wa-)*))( (Fc,)) d_=_f[] (,,)  d_=_f[] (,,)  d_=_f[] (,,) d_>  Af=((,),Qb,Wb);d_,Wb=_f[-] (,-,),Wb+  t_,d_=(Jf),_f[] (,,)   d_>=   d_<=   d_>  {[]=wa,[]=Qd,[]=,[]=i_,[]=ye,[]=Af} sf,d_=,   sf,d_=(Sc,),    d_<=  d_,ff=_f[] (,,),  d_,Fc=_f[] (,,),(Kd,)   d_>   d_<=   d_<=  d_,wa[(ff-)]=_f[-] (,-,),() (Fc>=  wa>Zb)((Fc<  Fc~=Fc) wa<Zb) d_=_f[-] (,-,) d_=    k=Gf;Ue=(Ue,((k,),(Q-)*))( (k,)) d_=_f[] (,,)  d_=_f[] (,,)  d_=_f[-] (,-,)  d_<   d_>  kd,d_=,  ff,d_=(t_,),_f[-] (,-,)   d_<=   d_>  d_,ff=_f[] (,,),t_  Kd=Fc  Kd==  d_=_f[] (,,) (Kd==) d_=_f[-] (,-,)  d_=_f[-] (,-,)  d_=   sf=md;kd=(kd,((sf,),(ad-)*))  (sf,) d_=_f[] (,,)  d_=_f[] (,,)  d_>   d_<=   d_>=   d_>=   d_<  Ed=k;wa=(Ed);Zb,d_,Kd,Fc=,,,(Ed)+  d_>  d_,k=_f[-] (,-,),(Ed,-)  d_,Db=_f[] (,,),(Q,-)   d_<=  kd=;D,Jf,d_,cd=,,,  cd[]=((Zb,),);cd[]=((Zb,),);d_,cd[]=_f[-] (,-,),((Zb,),)  d_<   d_>  xf,d_=(ye,),_f[-] (,-,)  md,d_=,_f[-] (,-,)  d_<=  Jf,D=((Zb,),),;D= Jf<  Jf  Jf-;d_,cd[]=_f[-] (,-,),D  d_,k=,   d_>=   d_<   d_<=  (Gf>=  Db>Q)((Gf<  Gf~=Gf) Db<Q) d_=  d_=   wa=wa+Fc;Kd=wa  wa~=wa  d_=_f[] (,,) d_=    d_>  Q=Db;Gf=(Q);k,wa,d_,Ed=,,,(Q)+  d_,t_=_f[-] (,-,),kd    d_>  d_=_f[] (,,)  d_>  t_,d_=(),_f[-] (,-,)  Kd==  d_=_f[-] (,-,)  Kd==  d_=_f[-] (,-,)  Kd==  d_=_f[] (,,)  Kd==  d_=_f[] (,,)  Kd==  d_=_f[] (,,) (Kd==) d_=_f[-] (,-,)  d_=_f[] (,,)  d_=_f[-] (,-,)  d_<=   d_<   d_>   d_>  d_,wa=,  d_,Fc=_f[-] (,-,),   d_>  d_,Fc[]=_f[-] (,-,),Gf[Fc[]+] d_<=  d_=_f[-] (,-,)  D=Jf;cd[]=D;(Qd,{});d_=_f[] (,,)  d_<=   d_>=   d_>  d_,Gf=_f[] (,,),(k,)  k=((,),Qb,Wb);d_,Wb=,Wb+   d_,P=,   d_<=  (Ed>=  Gf>k)((Ed<  Ed~=Ed) Gf<k) d_=_f[-] (,-,) d_=_f[-] (,-,)  d_,wa=_f[-] (,-,),(Zb,)   d_>   d_<  Ue=if_;Qd,rf=(Ue),;Q,d_,Db,Gf=(Ue)+,,,  d_>  Sc=((,),Qb,Wb);Wb,d_=Wb+,  rf,d_=,_f[] (,,)  d_>   d_<=  Jf,d_=D,_f[-] (,-,)  D=((,)..cd,Qb,Wb);d_,Wb=_f[-] (,-,),Wb+cd   d_<  d_,Fc[]=_f[] (,,),Gf[Fc[]+] d_<=  D=((,),Qb,Wb);d_,Wb=,Wb+  Gf=Gf+Ed;wa=Gf  Gf~=Gf  d_=_f[] (,,) d_=    d_<=   d_>   d_<=   d_>   d_>=   d_<=  k=Db  Q~=Q  d_=_f[] (,,) d_=_f[] (,,)  Zb=k  Ed~=Ed  d_=_f[-] (,-,) d_=_f[] (,,)   d_>  Ue=;Qd,d_,Db,rf=,_f[] (,,),,  oe,d_=(i_,),_f[-] (,-,)   d_>=   d_>=   d_>  (Kd>=  Zb>Fc)((Kd<  Kd~=Kd) Zb<Fc) d_=_f[-] (,-,) d_=   P,d_=(Af,),    d_,Fc[]=_f[] (,,),Gf[Fc[]+]  d_>  t_=ff;Ed=(Ed,((t_,),(Kd-)*))( (t_,)) d_=_f[] (,,)  d_=_f[-] (,-,)  d_=_f[] (,,) Fc[]=(Fc[],,)==;d_,Fc[]=_f[-] (,-,),(Fc[],,)==   d_>   d_>  wa=Gf  k~=k  d_=_f[] (,,) d_=_f[] (,,)  d_>  Jf,d_=(D,),   Q=;Ed,Gf,k,d_=,,,   d_<   d_<=  Kd=wa  Zb~=Zb  d_=_f[] (,,) d_=_f[-] (,-,)  Fc[],d_=(Fc[],,),_f[] (,,)  d_<=  Ed=;d_,Zb,wa,Fc=_f[-] (,-,),,,  Zb=((,),Qb,Wb);d_,Wb=_f[] (,,),Wb+   d_>   d_>   d_<  cd=kd (cd==) d_=_f[] (,,)  d_=_f[] (,,)  d_=_f[] (,,) d_<=  Fc=((,),Qb,Wb);Wb,d_=Wb+,_f[] (,,) d_,t_=_f[-] (,-,),((kd,-))   d_<=   d_<  d_,Fc[]=_f[-] (,-,),Gf[Fc[]+] d_<=  Ed,d_=kd,_f[] (,,)  Q=Qd  rf~=rf  d_=_f[] (,,) d_=    d_>  d_,md=,(sf,)  Qd=Qd+Db;Q=Qd  Qd~=Qd  d_=_f[-] (,-,) d_=    d_<=   d_<=   d_>  Fc[]=Gf[(Fc[],,)+];d_,Fc[]=_f[-] (,-,),(Fc[],,)==  d_>   Kd==  d_=_f[-] (,-,) (Kd==) d_=_f[-] (,-,)  d_=_f[] (,,)  d_=_f[] (,,) d_<=  Zb=Zb+Kd;ff=Zb  Zb~=Zb  d_=_f[] (,,) d_=    kd  d_=_f[] (,,)  d_=_f[-] (,-,)  d_>  Db,d_=,_f[] (,,) (D>=  cd>Jf)((D<  D~=D) cd<Jf) d_=_f[-] (,-,) d_=    d_>  Kd=((,),Qb,Wb);Wb,d_=Wb+,_f[-] (,-,) d_>=   d_<=  k=k+wa;Zb=k  k~=k  d_=_f[-] (,-,) d_=_f[-] (,-,)  ye=((,),Qb,Wb);Wb,d_=Wb+,   d_,Fc[]=_f[] (,,),Gf[Fc[]+]  d_>=   d_>   d_>=   d_>=   d_<=  cd[]=((Zb,),);Jf=((Zb,),);cd[]=Jf;D=;D= Jf<  Jf  Jf-;d_,cd[]=_f[-] (,-,),D  Db=Db+Gf;k=Db  Db~=Db  d_=_f[-] (,-,) d_=_f[] (,,)   d_>  (rf) d_=_f[] (,,)  d_=_f[-] (,-,)  d_=_f[-] (,-,) d_,Gf[(Zb-)]=_f[] (,,),ff   d_<=   d_>  d_,t_=,yb  d_>  Ed,d_=,_f[-] (,-,) (wa>=  k>Ed)((wa<  wa~=wa) k<Ed) d_=_f[-] (,-,) d_=_f[] (,,)   d_,t_=_f[] (,,),   d_>=   d_<=   d_>  kd=((,),Qb,Wb);d_,Wb=,Wb+  d_>  cd=cd+D;ad=cd  cd~=cd  d_=_f[] (,,) d_=   t_=((,),Qb,Wb);d_,Wb=,Wb+   d_>  Sc=sf;cd=(cd,((Sc,),(md-)*))  (Sc,) d_=_f[] (,,)  d_=_f[] (,,) cd=((ff,),);Fc[],d_=Gf[cd+],_f[-] (,-,)  d_<   d_<=  ff=Zb  Fc~=Fc  d_=_f[-] (,-,) d_=_f[-] (,-,)  ff,d_=(t_[],,t_[]),_f[-] (,-,)  d_<=  rf,d_=Ed,_f[-] (,-,) Zb,d_=,   d_>   d_<=   d_<   d_>  cd,Jf=((ff,),),((ff,),);Fc[]=Gf[cd+];d_,Fc[]=_f[] (,,),Gf[Jf+] kd,d_=(cd,-),_f[] (,,)   d_<=  (ad>=  Jf>D)((ad<  ad~=ad) Jf<D) d_=_f[-] (,-,) d_=_f[-] (,-,)  (wa>=  k>Ed)((wa<  wa~=wa) k<Ed) d_=_f[-] (,-,) d_=    d_>=   d_>  (Kd==) d_=_f[-] (,-,)  d_=_f[-] (,-,)  d_=_f[-] (,-,) Zb=wa;Fc=(Zb,);Kd=Me[][Fc+];ff,t_,kd=Kd[],Kd[],Kd[];cd={[]=,[]=t_,[]=,[]=,[]=,[]=,[]=,[]=,[]=,[]=,[]=,[]=,[]=,[]=Fc,[]=};(Qd,cd) ff==  d_=_f[] (,,)  ff==  d_=_f[-] (,-,)  ff==  d_=_f[] (,,)  d_=_f[-] (,-,)  ff,d_=,_f[-] (,-,)  d_>   d_<=   d_>=   d_>  ye,if_,d_=xf,,_f[] (,,) d_,Gf=,   d_=_f[-] (,-,)    Kd==  d_=_f[] (,,) (Kd==) d_=_f[] (,,)  d_=_f[-] (,-,)  d_=_f[-] (,-,)  d_>=   d_>  ad=cd  Jf~=Jf  d_=_f[-] (,-,) d_=_f[] (,,)  d_>  cd=;Jf,ad,D,d_=,,,  d_,Jf=,   d_>  Jf=Jf+ad;md=Jf  Jf~=Jf  d_=_f[] (,,) d_=_f[-] (,-,)  md=Jf  D~=D  d_=_f[-] (,-,) d_=    d_==   cf=();Me[][Qb]=cf  cf ) G=((Cf,ob)Cf=(Cf) ma=()  (Xa,ed) Kc=((...){...},(,...)) r_;r_=((df,tf,Ce) tf>Ce     df[tf],(df,tf+,Ce))  (j,ba,na,ze) We,Ad,la,dc,se_,Re,nc,J,Ec,ja,mb,rb,_d,Bd,Ma,fd,fc,ce,Gd,Wd,Na,Hf,Sd,x;Wd,dc={},(zd,vb,fa_)Wd[fa_]=(zd,)-(vb,) Wd[fa_];se_=Wd[-] (,,-) se_~=   se_>   se_>   se_<   se_<   se_<   se_<   se_<=   se_>=   se_<=  fd+=;se_=Wd[-] (,,-)  (Ma<=x) se_=Wd[] (,,)  se_=Wd[-] (,,-)  (rb>) se_=Wd[-] (,,-)  se_=Wd[-] (,,-)  se_=Wd[] (,,)  Ad=Ad+Ec;ce=Ad  Ad~=Ad  se_=Wd[-] (,,-) se_=    se_>=   se_>=   se_>  _d,se_=Sd-Ma+,Wd[] (,,) j[ja[]],se_=j[ja[]]+j[ja[]],Wd[-] (,,-)  (rb>) se_=Wd[-] (,,-)  se_=Wd[-] (,,-)  se_=Wd[-] (,,-)  se_<=  (rb>) se_=Wd[-] (,,-)  se_=Wd[-] (,,-)  se_=Wd[] (,,) _d,se_=Ec,    se_>=   se_>=   se_<=   se_<=  (rb>) se_=Wd[-] (,,-)  se_=Wd[] (,,)  se_=Wd[-] (,,-) (ja[]==) se_=Wd[] (,,)  se_=Wd[] (,,)  se_=Wd[] (,,)  ce=ce+Bd;fc=ce  ce~=ce  se_=Wd[] (,,) se_=    se_<=  fd+=ja[];se_=Wd[-] (,,-) x=x+fc;nc=x  x~=x  se_=Wd[] (,,) se_=    se_>=   se_<=  fd+=;se_=Wd[-] (,,-)  rb>  se_=Wd[-] (,,-)  se_=Wd[] (,,)  se_=Wd[-] (,,-)  se_<=  fd+=ja[];se_=Wd[-] (,,-) nc=x  Bd~=Bd  se_=Wd[] (,,) se_=    se_>   se_<=   se_<=   se_<=   se_<=  Re,Ma,_d=ja[],ja[],ja[]- (_d==-) se_=Wd[-] (,,-)  se_=Wd[-] (,,-)  se_=   ja[]==  se_=Wd[] (,,) (ja[]==) se_=Wd[-] (,,-)  se_=Wd[] (,,)  se_=Wd[-] (,,-)  Ma=ze[];Sd,se_=Re+Ma-,Wd[] (,,)  se_>  Ma,_d,Ad=Re[(,)](Ma);se_=Wd[] (,,) fd+=;se_=Wd[] (,,)  se_<   se_>   rb>  se_=Wd[] (,,)  se_=Wd[] (,,)  se_=Wd[] (,,) Hf,Ec=(_d,Ad);Ad=Hf  Ad==  se_=  se_=    se_>    Na  se_=Wd[-] (,,-)  se_=  (rb>) se_=Wd[] (,,)  se_=Wd[-] (,,-)  se_=Wd[] (,,)  se_<=   se_>   se_>  (rb>) se_=Wd[] (,,)  se_=Wd[] (,,)  se_=Wd[] (,,) Re[]=Ma;se_,ja[]=Wd[] (,,),   se_>  Hf,Ec=(J[ja],_d,j[Re+],j[Re+])( Hf) se_=Wd[] (,,)  se_=Wd[] (,,)  se_=  se_>  nc=(x)(nc==) se_=Wd[-] (,,-)  se_=Wd[] (,,)  se_=  se_<=  fd+=ja[];se_=Wd[-] (,,-) se_,ce=Wd[-] (,,-),ce..(((Hf,(nc-)+),(Ec,(nc-)%#Ec+)))  se_<=   se_>  j[Re]=Hf;se_,Ma=Wd[] (,,),Hf  se_<=  fd+=ja[];se_=Wd[-] (,,-)  rb>  se_=Wd[-] (,,-)  se_=Wd[] (,,)  se_=Wd[] (,,)  Hf,se_=x,Wd[] (,,)   se_>   se_>   se_<   se_<=   se_>  fd+=ja[];se_=Wd[] (,,) se_>  (nc>=  Bd>fc)((nc<  nc~=nc) Bd<fc) se_=Wd[] (,,) se_=Wd[] (,,)  Ma,_d,Ad=(Ma);se_=Wd[] (,,)  (j[ja[]]==j[ja[]]) se_=Wd[] (,,)  se_=Wd[] (,,)  se_=Wd[-] (,,-)  se_<=   se_<=   se_>  (rb>) se_=Wd[] (,,)  se_=Wd[] (,,)  se_=Wd[] (,,) x=(Hf) x==  se_=Wd[-] (,,-)  se_=   Re,Ma=ja[],ja[]-  Ma==-  se_=Wd[] (,,)  se_=Wd[-] (,,-)  fd-=;se_,na[fd]=Wd[] (,,),{[]=,[]=(ja[],),[]=(ja[],),[]=}  se_>   se_<   se_<=  We=nc[];mb=la[We](mb==) se_=Wd[] (,,)  se_=Wd[-] (,,-)  se_=  se_,Ma=,Hf    se_<=  (rb>) se_=Wd[-] (,,-)  se_=Wd[] (,,)  se_=Wd[] (,,) _d,Ad=Re[],ja[];Ad=(,)..Ad;Hf=;x,Ec,ce,se_=,,(#_d-)+,Wd[-] (,,-)  se_>=   se_>  (rb>) se_=Wd[-] (,,-)  se_=Wd[-] (,,-)  se_=Wd[] (,,) se_>  fd-=;se_,na[fd]=Wd[] (,,),{[]=,[]=(ja[],),[]=(ja[],),[]=} fd-=;na[fd],se_={[]=,[]=(ja[],),[]=(ja[],),[]=},Wd[-] (,,-)  se_<  Ad,se_=,  se_>   (Ma)==(,) se_=Wd[] (,,)  se_=Wd[] (,,) fc=ce  x~=x  se_=Wd[] (,,) se_=Wd[-] (,,-)   se_<   se_<=   se_<   se_<=  (rb>) se_=Wd[-] (,,-)  se_=Wd[] (,,)  se_=Wd[] (,,) (rb>) se_=Wd[] (,,)  se_=Wd[-] (,,-)  se_=Wd[] (,,)  se_>   Re==  se_=Wd[-] (,,-) (Re==) se_=Wd[] (,,)  se_=Wd[-] (,,-)  se_=Wd[] (,,) se_>  (Hf>) se_=Wd[] (,,)  se_=Wd[] (,,)  se_=Wd[-] (,,-) se_,Ad=Wd[-] (,,-),Ma-   se_<=   se_>   j[ja[]]<=j[ja[]] se_=Wd[] (,,)  se_=Wd[-] (,,-)  se_=Wd[] (,,) se_<=  Re=ja[]((j[ja[]]==)~=Re) se_=Wd[] (,,)  se_=Wd[] (,,)  se_=Wd[-] (,,-) se_,j[ja[]]=Wd[] (,,),    Bd==  se_=Wd[-] (,,-)  se_=Wd[-] (,,-)  se_>=   se_<   se_<=  Re,Ma,_d=(ja[],),(ja[],),(ja[],);Ad,Hf=Ma==  Sd-Re  Ma-,j[Re];Ec,ce=(((j,Re+,Re+Ad)))(_d==) se_=Wd[] (,,)  se_=Wd[] (,,)  se_=  ce=Ad  Hf~=Hf  se_=Wd[] (,,) se_=Wd[-] (,,-)   se_<=   se_<=  Ab;se_=Wd[] (,,)  (x<=Ma) se_=Wd[] (,,)  se_=Wd[-] (,,-)  Hf,Ec=Ma[],ja[];Ec=(,)..Ec;ce=;x,fc,se_,Bd=,,Wd[] (,,),(#Hf-)+   se_<=   se_<  fd+=;se_=Wd[] (,,) se_<=  (x>=  Ec>ce)((x<  x~=x) Ec<ce) se_=Wd[] (,,) se_=   (Bd>=  ce>x)((Bd<  Bd~=Bd) ce<x) se_=Wd[] (,,) se_=    se_<=   rb>  se_=Wd[] (,,)  se_=Wd[-] (,,-)  se_=Wd[] (,,) (j[ja[]]<j[ja[]]) se_=Wd[] (,,)  se_=Wd[-] (,,-)  se_=Wd[-] (,,-)  se_>=   se_>   se_>=   se_>=   se_<=   se_<  ce,se_=ce..(((Hf,(nc-)+),(Ec,(nc-)%#Ec+))),Wd[-] (,,-) se_>  Re=(Ma)(Re~=  Re[(,)]~=) se_=Wd[] (,,)  se_=Wd[] (,,)  se_=Wd[] (,,) Ma,_d,Ad=Re[(,)](Ma);se_=Wd[] (,,)  se_>   ja[]==  se_=Wd[-] (,,-)  se_=Wd[-] (,,-)  se_=Wd[] (,,) se_,Ec[(fc-)]=Wd[-] (,,-),mb   se_<=   se_<  fd-=;se_,na[fd]=Wd[] (,,),{[]=,[]=(ja[],),[]=(ja[],),[]=} se_>  fd-=;na[fd],se_={[]=,[]=(ja[],),[]=(ja[],),[]=},Wd[-] (,,-) fd+=;se_=Wd[] (,,)  Sd,se_,fd,la,J,Na=-,,,({},{[(,)]=(,)}),({},{[(,)]=(,)}),   se_<   se_<   se_<=  (rb>) se_=Wd[-] (,,-)  se_=Wd[-] (,,-)  se_=Wd[-] (,,-) We={[]=j[nc[]],[]=};We[]=We;se_,Ec[(fc-)]=Wd[] (,,),We   se_>  _d=na[fd+ja[]] J[_d]==  se_=Wd[] (,,)  se_=Wd[] (,,) Bd=Bd+nc;Gd=Bd  Bd~=Bd  se_=Wd[-] (,,-) se_=Wd[] (,,)   se_<=   se_>   rb>  se_=Wd[] (,,)  se_=Wd[] (,,)  se_=Wd[] (,,) se_>  fd+=ja[];se_=Wd[] (,,) Re,Ma=,(ja[],);Re= Ma<  Ma  Ma-;_d=Re;Ad=ba[_d+];Hf=Ad[];Ec=(Hf);j[(ja[],)]=(Ad,Ec);se_,ce,x,Bd=Wd[] (,,),,(Hf)+,   se_>  fd+=ja[];se_=Wd[-] (,,-) Ab;se_=Wd[-] (,,-)  se_>   se_<   se_>   rb>  se_=Wd[-] (,,-)  se_=Wd[-] (,,-)  se_=Wd[-] (,,-) se_>  Hf,Ec=(_d,Ad);Ad=Hf  Ad==  se_=  se_=   se_>  Ma[],se_=Ad,Wd[] (,,) (Ec);se_=Wd[] (,,)  se_<=   se_>=   se_<=  Ad=j[Re];Hf,se_,Ec,ce=Re+,Wd[] (,,),Ma,  j[ja[]]=(ja[]);fd+=;se_=Wd[-] (,,-)  fd+=ja[];se_=Wd[] (,,)  se_>   j[ja[]] se_=Wd[] (,,)  se_=Wd[-] (,,-) fd+=ja[];se_=Wd[-] (,,-)  se_<=   se_>   se_<=  se_,j[ja[]]=Wd[] (,,),j[ja[]]/j[ja[]] Re,Ma,_d=ja[],ja[],j[ja[]]((_d==Re)~=Ma) se_=Wd[] (,,)  se_=Wd[-] (,,-)  se_=Wd[] (,,)  se_<=   se_<=   se_>  se_,Ad=Wd[] (,,),Sd-Re+  fd+=ja[];se_=Wd[] (,,)  Re,Ma,_d=ja[],ja[],j[ja[]]((_d==Re)~=Ma) se_=Wd[] (,,)  se_=Wd[-] (,,-)  se_=Wd[-] (,,-)  (Ma<=Ad) se_=Wd[-] (,,-)  se_=Wd[-] (,,-)  se_=Wd[] (,,)  se_<=   se_>  Re,Ma=j[ja[]],;Ma=(Re)==(,)  Ma  se_=Wd[-] (,,-)  se_=  se_>   j[ja[]]<=j[ja[]] se_=Wd[] (,,)  se_=Wd[] (,,)  se_=Wd[-] (,,-) (rb>) se_=Wd[-] (,,-)  se_=Wd[] (,,)  se_=Wd[-] (,,-)  se_>  x,Bd=j[Re+],;fc=x;Bd=(fc)==(,)( Bd) se_=Wd[] (,,)  se_=Wd[] (,,)  se_=  Ma,_d,Ad=la  (Ma)~=(,) se_=Wd[-] (,,-)  se_=Wd[] (,,)  se_<=   se_>   se_<=   se_>   se_<=  Ad,se_=,Wd[-] (,,-) (rb>) se_=Wd[-] (,,-)  se_=Wd[-] (,,-)  se_=Wd[-] (,,-)  se_<  Re,Ma=,j[ja[]];Re=(Ma)==(,)  Re  se_=Wd[-] (,,-)  se_=Wd[] (,,) se_<=  Ab;se_=Wd[-] (,,-) Ec=Ec+x;Bd=Ec  Ec~=Ec  se_=Wd[-] (,,-) se_=Wd[-] (,,-)   se_>=   se_<=  (j,Ma,Ma+_d-,ja[],j[Re]);fd+=;se_=Wd[] (,,) Ab;se_=Wd[] (,,)  se_>  x,se_=x..(((Ec,(Gd-)+),(ce,(Gd-)%#ce+))),Wd[-] (,,-) (Ec);J[Hf],se_=,Wd[-] (,,-)  se_<=   se_<=   se_>=   se_>  (rb>) se_=Wd[] (,,)  se_=Wd[-] (,,-)  se_=Wd[-] (,,-) (fc>=  x>Bd)((fc<  fc~=fc) x<Bd) se_=Wd[] (,,) se_=    se_>  (rb>) se_=Wd[-] (,,-)  se_=Wd[] (,,)  se_=Wd[] (,,) se_,_d[(ce-)]=Wd[-] (,,-),ed[x[]+]  se_<=  fd+=;se_=Wd[-] (,,-)  j[ja[]]==j[ja[]] se_=Wd[] (,,)  se_=Wd[] (,,)  se_=Wd[] (,,)  se_>  fd+=ja[];se_=Wd[-] (,,-) se_>   rb>  se_=Wd[] (,,)  se_=Wd[] (,,)  se_=Wd[-] (,,-) se_<=  Re,Ma=ja[],ja[];_d,Ad=(Yb,j,,Re,Ma)  _d  se_=Wd[] (,,)  se_=Wd[-] (,,-)  rb>  se_=Wd[-] (,,-)  se_=Wd[] (,,)  se_=Wd[-] (,,-)  se_<   se_<=   se_>=   se_>=   se_>  j[ja[]]=ja[]==;fd+=ja[];se_=Wd[-] (,,-) (Bd>=  ce>x)((Bd<  Bd~=Bd) ce<x) se_=Wd[] (,,) se_=    se_,j[ja[]]=Wd[] (,,),ja[]/j[ja[]]  se_>  Re,Ma=ja[],ja[];_d=Ma- (_d==-) se_=Wd[-] (,,-)  se_=Wd[-] (,,-)  se_=Wd[] (,,) ( j[ja[]]) se_=Wd[-] (,,-)  se_=Wd[-] (,,-)  se_=Wd[-] (,,-)  se_>   Gd==  se_=Wd[-] (,,-)  se_=Wd[] (,,) se_<=   se_<=  fc=ce  x~=x  se_=Wd[] (,,) se_=Wd[] (,,)   rb>  se_=Wd[-] (,,-)  se_=Wd[] (,,)  se_=Wd[] (,,)  Ec,ce=Ma[],ja[];ce=(,)..ce;x=;fc,Bd,nc,se_=(#Ec-)+,,,   se_<   se_<=   se_<=   se_>  Ad,Hf=Ma[],ja[];Hf=(,)..Hf;Ec=;ce,x,Bd,se_=,(#Ad-)+,,  Re=ja[];j[ja[]]=j[ja[]][Re];fd+=;se_=Wd[-] (,,-)  (rb>) se_=Wd[-] (,,-)  se_=Wd[-] (,,-)  se_=Wd[] (,,)  fd+=;se_=Wd[] (,,)  se_>=   se_<  (rb>) se_=Wd[] (,,)  se_=Wd[-] (,,-)  se_=Wd[-] (,,-) se_<=  se_=Wd[] (,,)   Ec[]>=ja[] se_=Wd[] (,,)  se_=Wd[] (,,)  se_>  (rb>) se_=Wd[-] (,,-)  se_=Wd[-] (,,-)  se_=Wd[] (,,) j[ja[]],se_=ja[]-j[ja[]],Wd[-] (,,-)  se_<   se_<=   se_<   se_<   se_>   se_>   (j,Re,Re+Ad-) se_<   rb>  se_=Wd[] (,,)  se_=Wd[] (,,)  se_=Wd[] (,,) se_>  ja[]=;fd+=;se_=Wd[-] (,,-)  rb>  se_=Wd[] (,,)  se_=Wd[] (,,)  se_=Wd[-] (,,-)  se_<   se_<=   rb>  se_=Wd[] (,,)  se_=Wd[] (,,)  se_=Wd[] (,,) Na=;fd+=  rb>  se_=Wd[] (,,)  se_=Wd[-] (,,-)  se_=Wd[-] (,,-)  se_<=   se_<=  nc=na[fd];fd+=;Gd=nc[](Gd==) se_=Wd[] (,,)  se_=Wd[-] (,,-)  se_=Wd[] (,,) fd+=ja[];se_=Wd[-] (,,-)  (rb>) se_=Wd[-] (,,-)  se_=Wd[-] (,,-)  se_=Wd[] (,,)  se_>=   se_>   se_>  fd+=ja[];se_=Wd[-] (,,-) (Ec,,Ma,Re+,j);j[Re+]=j[Re+];fd+=ja[];se_=Wd[] (,,)  se_>=   se_<=  fd+=;se_=Wd[] (,,) (rb>) se_=Wd[-] (,,-)  se_=Wd[-] (,,-)  se_=Wd[-] (,,-)  (rb>) se_=Wd[-] (,,-)  se_=Wd[-] (,,-)  se_=Wd[] (,,)  se_<=   se_>=   se_<=  J[ja]=;fd+=;se_=Wd[-] (,,-)  rb>  se_=Wd[-] (,,-)  se_=Wd[-] (,,-)  se_=Wd[] (,,)  fd+=ja[];se_=Wd[] (,,)  se_<=  Hf,Ec=Ma[],ja[];Ec=(,)..Ec;ce=;x,se_,fc,Bd=,,,(#Hf-)+  fd+=;se_=Wd[-] (,,-)  se_>=   se_>   se_>   rb>  se_=Wd[-] (,,-)  se_=Wd[-] (,,-)  se_=Wd[-] (,,-) se_<=   se_<=  fd-=;se_,na[fd]=Wd[] (,,),{[]=,[]=(ja[],),[]=(ja[],),[]=} x=Hf  Ec~=Ec  se_=Wd[-] (,,-) se_=    x=x+fc;nc=x  x~=x  se_=Wd[] (,,) se_=    se_<=   se_<=   se_>=   se_<=  j[ja[]],se_=_d[ja[]][ja[]],Wd[] (,,) j[ja[]],se_=j[ja[]]*j[ja[]],Wd[] (,,)  se_,j[ja[]]=Wd[-] (,,-),ja[]  Re=ja[];Ma,_d=j[Re],j[Re+];Ad=j[Re+]+_d;j[Re+]=Ad  _d>  se_=Wd[-] (,,-)  se_=Wd[-] (,,-)  se_=Wd[-] (,,-)  se_<=  (Gd==) se_=Wd[] (,,)  se_=Wd[-] (,,-)  se_=Wd[-] (,,-) Hf=(Ma)(Hf==) se_=Wd[-] (,,-)  se_=Wd[] (,,)  se_=Wd[] (,,)  se_>=   se_>   se_>  Gd=Bd  fc~=fc  se_=Wd[] (,,) se_=   j[ja[]],se_=j[ja[]][ja[]+],Wd[] (,,)  se_>  se_,j[ja[]]=Wd[] (,,), j[ja[]] se_>  Re=ba[ja[]+];Ma=Re[];_d=(Ma);j[ja[]]=(Re,_d);Ec,Ad,se_,Hf=,,,(Ma)+   ja[]==  se_=Wd[-] (,,-)  ja[]==  se_=Wd[] (,,)  se_=Wd[] (,,)  se_=Wd[-] (,,-)  se_<=   se_>=   se_>  Bd=Ec  ce~=ce  se_=Wd[] (,,) se_=   fd+=;se_=Wd[-] (,,-)  se_,j[ja[]][j[ja[]]]=Wd[] (,,),j[ja[]]  (ce>=  Hf>Ec)((ce<  ce~=ce) Hf<Ec) se_=Wd[-] (,,-) se_=Wd[] (,,)   se_<=   se_>=   se_<=   se_<=   se_>  j[ja[]],se_=_d[ja[]],Wd[-] (,,-) se_<  (fc>=  x>Bd)((fc<  fc~=fc) x<Bd) se_=Wd[] (,,) se_=Wd[] (,,)  se_<=  Re=(Ma) Re~=  Re[(,)]~=  se_=Wd[-] (,,-) ((Ma)==(,)) se_=Wd[-] (,,-)  se_=Wd[-] (,,-)  se_=Wd[-] (,,-)  rb>  se_=Wd[] (,,)  se_=Wd[-] (,,-)  se_=Wd[-] (,,-)  se_>   rb>  se_=Wd[-] (,,-)  se_=Wd[-] (,,-)  se_=Wd[] (,,) j[Re+]=j[Re+];fd+=ja[];se_=Wd[-] (,,-)  se_<   se_<=  Ma[],se_=Hf,Wd[-] (,,-) (rb>) se_=Wd[-] (,,-)  se_=Wd[] (,,)  se_=Wd[] (,,)  se_>  fd-=;se_,na[fd]=Wd[] (,,),{[]=,[]=(ja[],),[]=(ja[],),[]=} Re,se_,Ma=na[fd],Wd[-] (,,-),   se_>   se_>  fd-=;se_,na[fd]=Wd[-] (,,-),{[]=,[]=(ja[],),[]=(ja[],),[]=} se_>  (j[ja[]]<j[ja[]]) se_=Wd[-] (,,-)  se_=Wd[] (,,)  se_=Wd[-] (,,-) se_<=  Ma,_d,Ad=Re[(,)](Ma);se_=Wd[] (,,) Ad..=j[x];se_=Wd[-] (,,-)  se_>=   se_<=   se_>  Re=ja[];j[ja[]][Re]=j[ja[]];fd+=;se_=Wd[-] (,,-) Hf,Ec=(_d,Ad);Ad=Hf  Ad==  se_=Wd[] (,,) se_=    Re=(Ma) Re~=  Re[(,)]~=  se_=Wd[-] (,,-) ((Ma)==(,)) se_=Wd[-] (,,-)  se_=Wd[] (,,)  se_=Wd[] (,,)  se_<=  Hf,se_=Hf..(((_d,(Bd-)+),(Ad,(Bd-)%#Ad+))),Wd[-] (,,-)  rb>  se_=Wd[-] (,,-)  se_=Wd[-] (,,-)  se_=Wd[] (,,)  se_<   se_<=   se_<   se_<=  j[Re+]=x;Hf,se_=x,Wd[] (,,)  ja[]==  se_=Wd[-] (,,-)  ja[]==  se_=Wd[] (,,)  se_=Wd[-] (,,-)  se_=Wd[-] (,,-)  se_>=   se_<=  fd+=ja[];se_=Wd[] (,,) fd+=;se_=Wd[-] (,,-)  se_,j[ja[]]=Wd[] (,,),j[ja[]]+ja[]  se_>=   se_>  fd+=ja[];se_=Wd[] (,,) se_,j[ja[]]=Wd[-] (,,-),_d   se_>  Re,Ma=ja[],ja[];Sd=Re+;_d,Ad=j[Re],;Ad=(_d)==(,)(Ad) se_=Wd[] (,,)  se_=Wd[] (,,)  se_=Wd[-] (,,-) Re,Ma,_d,Ad=ja[],ja[],j[ja[]],;Ad=(_d)==(,)((Ad (_d==Re))~=Ma) se_=Wd[] (,,)  se_=Wd[-] (,,-)  se_=Wd[-] (,,-)  se_<=   se_>=   se_>   rb>  se_=Wd[] (,,)  se_=Wd[-] (,,-)  se_=Wd[-] (,,-) se_>   rb>  se_=Wd[-] (,,-)  se_=Wd[-] (,,-)  se_=Wd[] (,,)  rb>  se_=Wd[-] (,,-)  se_=Wd[-] (,,-)  se_=Wd[] (,,)  se_<=  j[ja[]],se_=j[ja[]]-ja[],Wd[] (,,)  rb>  se_=Wd[-] (,,-)  se_=Wd[-] (,,-)  se_=Wd[] (,,)  se_>=   se_>   rb>  se_=Wd[-] (,,-)  se_=Wd[] (,,)  se_=Wd[] (,,) Ma,_d,Ad=(Ma);se_=Wd[-] (,,-)  se_>  Re,Ma=ja[],ja[];_d=ma[Ma] Me[][Ma](Re==) se_=Wd[-] (,,-)  se_=Wd[-] (,,-)  se_=  fd+=;se_=Wd[-] (,,-)  se_>=   se_>=   se_<   se_>   se_<=   se_>=   se_<=  ja=na[fd];se_,rb=Wd[-] (,,-),ja[]  rb>  se_=Wd[-] (,,-)  se_=Wd[] (,,)  se_=Wd[] (,,)  fd+=ja[];se_=Wd[-] (,,-)  se_,Ec=Wd[-] (,,-),Ec..(((Ad,(fc-)+),Tb(Hf,(fc-47)%#Hf+1)))end elseif se_<29866 then if se_<=29504 then Re=ed[ja[5757]+1];j[ja[50078]],se_=Re[3][Re[1]],Wd[-19623]or dc(76746,40975,-19623)else Re=j[ja[50078]];se_,j[ja[63392]]=Wd[-6945]or dc(118040,36569,-6945),if Re then Re else j[ja[5757]]or false end elseif se_>=29978 then if se_<=29978 then _b(ze[37324],1,Ma,Re,j);se_=Wd[3624]or dc(91415,26322,3624)else j[ja[50078]],se_=j[ja[5757]],Wd[5602]or dc(129029,61884,5602)end else fd-=1;na[fd],se_={[13399]=1,[50078]=F(ja[50078],149),[5757]=F(ja[5757],47),[63392]=0},Wd[-14776]or dc(41710,10219,-14776)end elseif se_>31580 then if se_<=33047 then if se_>=32699 then if se_<=32699 then Re,Ma=nil,j[ja[50078]];Re=Xd(Ma)==Tc('\164Y\137k\182E\136f','\194,\231\b')if(not Re)then se_=Wd[6421]or dc(120330,33249,6421)continue else se_=Wd[14891]or dc(63352,37718,14891)continue end se_=Wd[-32329]or dc(23919,15687,-32329)else fd+=ja[56087];se_=Wd[-13206]or dc(81786,47999,-13206)end else se_,j[ja[63392]]=Wd[-26814]or dc(84609,3904,-26814),j[ja[50078]]/ja[29476]end else if(rb>125)then se_=Wd[-26857]or dc(73854,20360,-26857)continue else se_=Wd[4793]or dc(38085,17532,4793)continue end se_=Wd[-10932]or dc(70590,18491,-10932)end elseif se_<31277 then if se_>31217 then Re=ed[ja[5757]+1];se_,Re[3][Re[1]]=Wd[7280]or dc(100516,49437,7280),j[ja[50078]]elseif se_<=31194 then Ma,_d,Ad=la if(Lb(Ma)~=Tc('%-\181\200\55\49\180\197','CX\219\171'))then se_=Wd[-27627]or dc(61878,43445,-27627)continue else se_=Wd[-13222]or dc(126839,59915,-13222)continue end se_=Wd[25701]or dc(98106,31312,25701)else Ma,_d,Ad=J if(Lb(Ma)~=Tc('\198\181\222\143\212\169\223\130','\160\192\176\236'))then se_=Wd[-30544]or dc(94985,19111,-30544)continue else se_=Wd[-7924]or dc(123797,53389,-7924)continue end se_=Wd[22718]or dc(123995,56543,22718)end elseif se_>=31495 then if se_>31495 then se_,Ec[(fc-165)]=Wd[-10073]or dc(87955,26500,-10073),ed[nc[5757]+1]else Ec[2]=Ec[3][Ec[1]];Ec[3]=Ec;Ec[1]=2;se_,la[Hf]=Wd[30328]or dc(46325,64653,30328),nil end else j[ja[50078]],se_=-j[ja[5757]],Wd[1655]or dc(128124,62581,1655)end elseif se_<=27827 then if se_>26110 then if se_<27599 then if se_>26250 then Hf={_d(j[Re+1],j[Re+2])};_b(Hf,1,Ma,Re+3,j)if j[Re+3]~=nil then se_=Wd[7657]or dc(16296,31861,7657)continue else se_=Wd[32330]or dc(95920,29048,32330)continue end se_=Wd[-17901]or dc(96123,29566,-17901)else se_,j[ja[5757]]=Wd[-5045]or dc(129699,65318,-5045),j[ja[50078]]*ja[29476]end elseif se_<=27599 then if rb>168 then se_=Wd[-32007]or dc(46500,41596,-32007)continue else se_=Wd[862]or dc(59101,20321,862)continue end se_=Wd[-3442]or dc(120455,37698,-3442)else if rb>75 then se_=Wd[-23002]or dc(72290,45045,-23002)continue else se_=Wd[-22233]or dc(81890,64557,-22233)continue end se_=Wd[16054]or dc(74759,42434,16054)end elseif se_>25935 then if se_<=26084 then mb={[1]=We,[3]=j};se_,la[We]=Wd[-15747]or dc(95402,22305,-15747),mb else Ab'';se_=Wd[28173]or dc(4677,3255,28173)end elseif se_>=25828 then if se_<=25828 then if(Ec>=0 and Ad>Hf)or((Ec<0 or Ec~=Ec)and Ad<Hf)then se_=Wd[18065]or dc(90673,26544,18065)else se_=22364 end else Ec[2]=Ec[3][Ec[1]];Ec[3]=Ec;Ec[1]=2;la[Hf],se_=nil,Wd[-4343]or dc(130255,64675,-4343)end elseif se_<=25048 then Re=j[ja[63392]];j[ja[5757]],se_=if Re then Re else ja[29476]or false,Wd[16977]or dc(67105,17312,16977)else if(rb>185)then se_=Wd[-18038]or dc(114765,50951,-18038)continue else se_=Wd[-6690]or dc(58954,28478,-6690)continue end se_=Wd[-18542]or dc(75932,41301,-18542)end elseif se_>28922 then if se_>29278 then Hf=Hf+ce;x=Hf if Hf~=Hf then se_=Wd[-3444]or dc(63670,32404,-3444)else se_=3773 end elseif se_<=29153 then if se_<=29034 then Ad,se_=ce,Wd[-6473]or dc(92406,42843,-6473)continue else Re,Ma=nil,F(ja[62159],64325);Re=if Ma<32768 then Ma else Ma-65536;_d=Re;se_,j[F(ja[50078],152)]=Wd[15594]or dc(127615,63098,15594),_d end else if rb>122 then se_=Wd[-31177]or dc(62908,14843,-31177)continue else se_=Wd[27083]or dc(42449,37937,27083)continue end se_=Wd[-15454]or dc(47753,16200,-15454)end elseif se_>28699 then if se_<=28714 then if(rb>105)then se_=Wd[-19927]or dc(9563,9620,-19927)continue else se_=Wd[-9731]or dc(43494,50600,-9731)continue end se_=Wd[14200]or dc(67087,17354,14200)else ce=ce+Bd;fc=ce if ce~=ce then se_=Wd[-28719]or dc(95812,18932,-28719)else se_=Wd[14864]or dc(82640,18559,14864)end end elseif se_<=28591 then if se_>28479 then fc={[2]=j[x[5757]],[1]=2};fc[3]=fc;se_,_d[(ce-249)]=Wd[8777]or dc(65808,24441,8777),fc else j[ja[5757]],se_=j[ja[50078]]-j[ja[63392]],Wd[-10751]or dc(42570,9103,-10751)end else Ma,_d,Ad=W(Ma);se_=Wd[412]or dc(67605,20325,412)end elseif se_<18888 then if se_>16390 then if se_<=17080 then if se_>16537 then if se_<=17039 then Ma[29476]=_d if Re==2 then se_=Wd[-9439]or dc(73836,19276,-9439)continue elseif Re==3 then se_=Wd[-16329]or dc(56311,10777,-16329)continue end se_=Wd[-6789]or dc(28833,3135,-6789)else if(ja[63392]==153)then se_=Wd[12155]or dc(39647,16870,12155)continue else se_=Wd[-5409]or dc(51899,27646,-5409)continue end se_=Wd[-22244]or dc(101990,51811,-22244)end elseif se_>=16489 then if se_<=16489 then fd+=ja[56087];se_=Wd[20596]or dc(94388,26925,20596)else if(Ec==-2)then se_=Wd[-32207]or dc(8886,31688,-32207)continue else se_=Wd[-20026]or dc(23459,10321,-20026)continue end se_=Wd[22701]or dc(121850,37119,22701)end else if rb>79 then se_=Wd[-31804]or dc(117945,49265,-31804)continue else se_=Wd[-14001]or dc(4243,27521,-14001)continue end se_=Wd[-12185]or dc(41509,10140,-12185)end elseif se_>17375 then se_,Ad=22374,ce continue elseif se_>17090 then fd-=1;se_,na[fd]=Wd[-24808]or dc(99159,63634,-24808),{[13399]=79,[50078]=F(ja[50078],71),[5757]=F(ja[5757],51),[63392]=0}else Ad=(function(...)for L,uf,bf,Y,Ua,vc,ua,kf,kb,Id,Ee,ia,te,le,td,v,zb,ud,l_,fb in...do Rb{L,uf,bf,Y,Ua,vc,ua,kf,kb,Id,Ee,ia,te,le,td,v,zb,ud,l_,fb}end Rb(-2)end);se_,J[_d]=Wd[-866]or dc(58089,15402,-866),lc(Ad)end elseif se_>15924 then if se_>16169 then if rb>13 then se_=Wd[24811]or dc(81930,12650,24811)continue else se_=Wd[21472]or dc(4706,28533,21472)continue end se_=Wd[6940]or dc(87273,5608,6940)elseif se_<=16030 then if se_<=16003 then if Ad<=Ma then se_=Wd[-1590]or dc(76182,46572,-1590)continue end se_=Wd[12530]or dc(103637,54540,12530)else if(ja[63392]==222)then se_=Wd[5330]or dc(119972,47605,5330)continue else se_=Wd[-12127]or dc(97894,29417,-12127)continue end se_=Wd[17930]or dc(76350,44987,17930)end else se_,j[ja[5757]]=Wd[9084]or dc(92398,25067,9084),j[ja[63392]]%ja[29476]end elseif se_>=15366 then if se_<15613 then se_,j[ja[50078]]=Wd[-24453]or dc(43345,8848,-24453),j[ja[63392]][j[ja[5757]]]elseif se_<=15613 then fd+=1;se_=Wd[4196]or dc(93064,24649,4196)else if rb>9 then se_=Wd[-11228]or dc(40240,48089,-11228)continue else se_=Wd[-18873]or dc(41677,39423,-18873)continue end se_=Wd[-16641]or dc(89398,7859,-16641)end elseif se_>=14982 then if se_<=14982 then if(rb>224)then se_=Wd[24298]or dc(109783,55123,24298)continue else se_=Wd[-31329]or dc(16410,9787,-31329)continue end se_=Wd[13604]or dc(120212,38477,13604)else fd+=ja[56087];se_=Wd[-22075]or dc(85291,3758,-22075)end else if(rb>63)then se_=Wd[28113]or dc(51983,24429,28113)continue else se_=Wd[-22388]or dc(83302,7925,-22388)continue end se_=Wd[25810]or dc(105691,56606,25810)end elseif se_<22918 then if se_>20489 then if se_<=22364 then if se_>22229 then x=na[fd];fd+=1;Bd=x[50078]if(Bd==0)then se_=Wd[-21445]or dc(90030,35322,-21445)continue else se_=Wd[-3568]or dc(76149,23493,-3568)continue end se_=Wd[-23018]or dc(88166,30219,-23018)elseif se_<=21363 then if rb>21 then se_=Wd[-23001]or dc(119048,63856,-23001)continue else se_=Wd[5313]or dc(1921,6969,5313)continue end se_=Wd[-7156]or dc(101399,52690,-7156)else if(rb>110)then se_=Wd[16569]or dc(79634,51619,16569)continue else se_=Wd[23647]or dc(70722,16677,23647)continue end se_=Wd[-30943]or dc(45726,14171,-30943)end else Ma[64673]=Ad;se_,Hf=Wd[-2173]or dc(48806,20450,-2173),nil end elseif se_>=19723 then if se_<20428 then ce,se_=_d-1,Wd[-23827]or dc(56008,30529,-23827)elseif se_<=20428 then Re,Ma,se_,_d=ja[42036],na[fd+1],40525,nil else nc=x if Bd~=Bd then se_=Wd[11678]or dc(83002,45899,11678)else se_=8426 end end elseif se_<=18888 then Re=ja[50078];Ma,_d=j[Re],nil;Ad=Ma;_d=Xd(Ad)==Tc('\186\201\188\182\217\163','\212\188\209')if not _d then se_=Wd[24442]or dc(6915,24927,24442)continue end se_=Wd[5611]or dc(84462,35219,5611)else _b(Ec,1,ce,Re,j);se_=Wd[23569]or dc(47980,16229,23569)end elseif se_<24162 then if se_<23857 then if se_>22918 then if rb>17 then se_=Wd[-29571]or dc(33150,27364,-29571)continue else se_=Wd[-16175]or dc(86482,47090,-16175)continue end se_=Wd[-17287]or dc(80141,45764,-17287)else Hf,Ec=j[Re+1],nil;ce=Hf;Ec=Xd(ce)==Tc('4\31s8\15l','Zj\30')if not Ec then se_=Wd[9255]or dc(71018,29175,9255)continue end se_=Wd[-24989]or dc(44336,25376,-24989)end elseif se_<23981 then fd+=ja[56087];se_=Wd[30142]or dc(76216,41529,30142)elseif se_>23981 then j[Re+2]=nc;se_,x=Wd[78]or dc(117445,33922,78),nc else se_,j[ja[50078]]=Wd[-19422]or dc(74501,22716,-19422),#j[ja[5757]]end elseif se_<=24372 then if se_<24371 then Sd,se_=Re+ce-1,Wd[-23156]or dc(35184,23209,-23156)elseif se_>24371 then if rb>161 then se_=Wd[7635]or dc(64318,4682,7635)continue else se_=Wd[5884]or dc(76492,44929,5884)continue end se_=Wd[6350]or dc(82450,2007,6350)else Re,Ma,_d=ja[5757],ja[50078],ja[29476];Ad=j[Ma];j[Re+1]=Ad;j[Re]=Ad[_d];fd+=1;se_=Wd[10441]or dc(94365,26964,10441)end elseif se_<=24389 then se_,j[ja[63392]]=Wd[-14621]or dc(46656,13185,-14621),Ad else if(rb>173)then se_=Wd[6570]or dc(126526,60863,6570)continue else se_=Wd[23831]or dc(91670,7773,23831)continue end se_=Wd[24056]or dc(78997,46412,24056)end end end return function(...)local Ob,n_,Oa,Bf,ld,Kf,mc,ec,vd,M,ke;ec,Oa={},function(Eb,T,qc)ec[Eb]=Ye(qc,28516)-Ye(T,35714)return ec[Eb]end;ld=ec[-138]or Oa(-138,6308,69155)repeat if ld>33749 then if ld<=41080 then if ld>35637 then return Ab(Bf,0)else ld=ec[-14442]or Oa(-14442,14792,68121)continue end else M,mc,Ob=Te(...),he(Xa[58601]),{[37324]={},[19127]=0};_b(M,1,Xa[22362],0,mc)if(Xa[22362]<M[Tc('\227','\141')])then ld=ec[3902]or Oa(3902,60409,35636)continue else ld=ec[5886]or Oa(5886,55710,59801)continue end ld=ec[13]or Oa(13,8862,45721)end elseif ld>=16970 then if ld>=22368 then if ld<=22368 then return r_(Kf,2,n_)else Kf,n_=Xa[22362]+1,M[Tc('-','C')]-Xa[22362];Ob[19127]=n_;_b(M,Kf,Kf+n_-1,1,Ob[37324]);ld=ec[9948]or Oa(9948,10473,46888)end else Bf,ld=Xd(Bf),ec[8048]or Oa(8048,32880,49934)end elseif ld<=10890 then Bf,vd=Kf[2],nil;ke=Bf;vd=Xd(ke)==Tc('\236\217\227\246\195\246','\159\173\145')if(vd==false)then ld=ec[18286]or Oa(18286,15021,39965)continue else ld=ec[-6655]or Oa(-6655,61638,95448)continue end ld=41080 else Kf,n_=Kc(Le(Ra,mc,Xa[9282],Xa[30109],Ob))if Kf[1]then ld=ec[7592]or Oa(7592,48494,57640)continue else ld=ec[309]or Oa(309,28990,84514)continue end ld=ec[-2017]or Oa(-2017,1385,95556)end until ld==45875 end end return Ud(Cf,ob)end)local Nc;Nc,Se={[0]=0},function()Nc[0]=Nc[0]+1 return{[3]=Nc,[1]=Nc[0]}end;Jb=G return(function()local gb,Je,Zc,f_;Je={[1]=2,[2]=Jb};Je[3]=Je;f_={[2]=b_,[1]=2};f_[3]=f_;Zc={[1]=2,[2]=Mc};Zc[3]=Zc;gb={[2]=nf,[1]=2};gb[3]=gb return Jb(Xe'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',{[1]=Je,[4]=gb,[2]=f_,[3]=Zc})end)()(...)