MAKE_MECH_PROP_CASE_031.f90 File Reference

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Functions/Subroutines
subroutine	make_mech_prop_case_031 (rho, lambda, mu, gamma, qs, qp, xs, ys, zs, depth, zs_all, vs30, thickness, sub_tag_all)
	Makes not-honoring technique.

Function/Subroutine Documentation

make_mech_prop_case_031()

subroutine make_mech_prop_case_031	(	real*8, intent(out)	rho,
		real*8, intent(out)	lambda,
		real*8, intent(out)	mu,
		real*8, intent(out)	gamma,
		real*8, intent(out)	qs,
		real*8, intent(out)	qp,
		real*8, intent(in)	xs,
		real*8, intent(in)	ys,
		real*8, intent(in)	zs,
		real*8, intent(in)	depth,
		real*8, intent(in)	zs_all,
		real*8, intent(in)	vs30,
		real*8, intent(in)	thickness,
		integer*4	sub_tag_all
	)

Makes not-honoring technique.

Mechanical properties given node by node.

Definition at line 24 of file MAKE_MECH_PROP_CASE_031.f90.

              
     real*8, intent(out) :: rho, lambda, mu, gamma, qs, qp
     real*8, intent(in)  :: xs, ys, zs, depth, zs_all,&
        vs30, thickness
     integer*4           :: sub_tag_all                                 
     real*8              :: ni, vs, vp, depth_real    
     real*8, dimension(1) :: val1     
              
     rho    = 0.d0;
     lambda = 0.d0;
     mu     = 0.d0;
     gamma  = 0.d0;
     qs     = 0.d0;
     qp     = 0.d0
     
    !-------------------------------------------------------------------
    ! + MATERIAL INSIDE THE ALLUVIAL BASIN - 1st Layer
    ! from ground surface to PE_B
                
    if (sub_tag_all.eq.1) then
            
            !val1(1) =  maxval((/ 200.d0, 90.d0 + 80.d0*dabs(zs)**0.30/))
            vs = 150 + 40*dabs(zs)**(0.4);
            vp  = vs*4.5d0;
            rho = 1800.d0;
            lambda = rho * (vp**2.d0 - 2.d0*vs**2.d0);
            mu = rho * vs**2.d0;
            qs = vs/10.d0;
            qp = vp/10.d0
            gamma = 4.d0*datan(1.d0)*5.d0/qs;   !CHECK f0 = 5Hz => FMAX in file.mate           
 
    ! + MATERIAL INSIDE THE ALLUVIAL BASIN - 2nd Layer
    ! from PE_B to NU_B
    elseif (sub_tag_all.eq.2) then
            val1(1) = minval((/ 600.d0,360.d0+0.68*dabs(zs) /));
            vs = val1(1);
            vp  = vs * 3.8d0;
            rho = 2050.d0;
            lambda = rho * (vp**2.d0 - 2.d0*vs**2.d0);
            mu = rho * vs**2.d0;
            qs = vs/10.d0;
            qp = vp/10.d0
            gamma = 4.d0*datan(1.d0)*5.d0/qs;            
 
 
   ! + MATERIAL INSIDE THE ALLUVIAL BASIN - 3rd Layer
   ! from NU_B to NS_B
    elseif (sub_tag_all.eq.3) then
            vs = 600.d0;
            vp  = vs * 3.2d0;
            rho = 2050.d0;
            lambda = rho * (vp**2.d0 - 2.d0*vs**2.d0);
            mu = rho * vs**2.d0;
            qs = vs/10.d0;
            qp = vp/10.d0
            gamma = 4.d0*datan(1.d0)*5.d0/qs;       
             
 
    ! + MATERIAL INSIDE THE ALLUVIAL BASIN - 4th Layer
    ! CK
    elseif (sub_tag_all.eq.4) then
            !VS = 365.d0 + 1.15*dabs(zs);
            vs = 2090.d0;
            if (dabs(zs) .le. 1200.d0) vs = 1515.d0 
            
            vp  = vs * 2.d0;
            rho = 2400.d0;
            lambda = rho * (vp**2.d0 - 2.d0*vs**2.d0);
            mu = rho * vs**2.d0;
            qs = vs/10.d0;
            qp = vp/10.d0
            gamma = 4.d0*datan(1.d0)*5.d0/qs;            
    ! + MATERIAL INSIDE THE ALLUVIAL BASIN - 5th Layer
    ! ZE
    elseif (sub_tag_all.eq.5) then
            vs = 2850.d0;
            vp  = 5100.d0;
            rho = 2450.d0;
            lambda = rho * (vp**2.d0 - 2.d0*vs**2.d0);
            mu = rho * vs**2.d0;
            qs = vs/10.d0;
            qp = vp/10.d0
            gamma = 4.d0*datan(1.d0)*5.d0/qs;            
    ! + MATERIAL INSIDE THE ALLUVIAL BASIN - 6th Layer
    ! RO (reservoir)
    elseif (sub_tag_all.eq.6) then
            vs = 2300.d0;
            vp  = 3900.d0;
            rho = 2450.d0;
            lambda = rho * (vp**2.d0 - 2.d0*vs**2.d0);
            mu = rho * vs**2.d0;
            qs = vs/10.d0;
            qp = qp/10.d0
            gamma = 4.d0*datan(1.d0)*5.d0/qs;            
    else ! LI (halfspace)
            vs = 2600.d0;
            vp  = 4500.d0;
            rho = 2650.d0;
            lambda = rho * (vp**2.d0 - 2.d0*vs**2.d0);
            mu = rho * vs**2.d0;
            qs = vs/10.d0;
            qp = vp/10.d0
            gamma = 4.d0*datan(1.d0)*5.d0/qs;
    endif
 
    !
    !-------------------------------------------------------------------
     
     
     

Referenced by make_eltensor_for_cases().

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