.TH "TESTING/EIG/cglmts.f" 3 "Version 3.12.0" "LAPACK" \" -*- nroff -*-
.ad l
.nh
.SH NAME
TESTING/EIG/cglmts.f
.SH SYNOPSIS
.br
.PP
.SS "Functions/Subroutines"

.in +1c
.ti -1c
.RI "subroutine \fBcglmts\fP (n, m, p, a, af, lda, b, bf, ldb, d, df, x, u, work, lwork, rwork, result)"
.br
.RI "\fBCGLMTS\fP "
.in -1c
.SH "Function/Subroutine Documentation"
.PP 
.SS "subroutine cglmts (integer n, integer m, integer p, complex, dimension( lda, * ) a, complex, dimension( lda, * ) af, integer lda, complex, dimension( ldb, * ) b, complex, dimension( ldb, * ) bf, integer ldb, complex, dimension( * ) d, complex, dimension( * ) df, complex, dimension( * ) x, complex, dimension( * ) u, complex, dimension( lwork ) work, integer lwork, real, dimension( * ) rwork, real result)"

.PP
\fBCGLMTS\fP 
.PP
\fBPurpose:\fP
.RS 4

.PP
.nf
 CGLMTS tests CGGGLM - a subroutine for solving the generalized
 linear model problem\&.
.fi
.PP
 
.RE
.PP
\fBParameters\fP
.RS 4
\fIN\fP 
.PP
.nf
          N is INTEGER
          The number of rows of the matrices A and B\&.  N >= 0\&.
.fi
.PP
.br
\fIM\fP 
.PP
.nf
          M is INTEGER
          The number of columns of the matrix A\&.  M >= 0\&.
.fi
.PP
.br
\fIP\fP 
.PP
.nf
          P is INTEGER
          The number of columns of the matrix B\&.  P >= 0\&.
.fi
.PP
.br
\fIA\fP 
.PP
.nf
          A is COMPLEX array, dimension (LDA,M)
          The N-by-M matrix A\&.
.fi
.PP
.br
\fIAF\fP 
.PP
.nf
          AF is COMPLEX array, dimension (LDA,M)
.fi
.PP
.br
\fILDA\fP 
.PP
.nf
          LDA is INTEGER
          The leading dimension of the arrays A, AF\&. LDA >= max(M,N)\&.
.fi
.PP
.br
\fIB\fP 
.PP
.nf
          B is COMPLEX array, dimension (LDB,P)
          The N-by-P matrix A\&.
.fi
.PP
.br
\fIBF\fP 
.PP
.nf
          BF is COMPLEX array, dimension (LDB,P)
.fi
.PP
.br
\fILDB\fP 
.PP
.nf
          LDB is INTEGER
          The leading dimension of the arrays B, BF\&. LDB >= max(P,N)\&.
.fi
.PP
.br
\fID\fP 
.PP
.nf
          D is COMPLEX array, dimension( N )
          On input, the left hand side of the GLM\&.
.fi
.PP
.br
\fIDF\fP 
.PP
.nf
          DF is COMPLEX array, dimension( N )
.fi
.PP
.br
\fIX\fP 
.PP
.nf
          X is COMPLEX array, dimension( M )
          solution vector X in the GLM problem\&.
.fi
.PP
.br
\fIU\fP 
.PP
.nf
          U is COMPLEX array, dimension( P )
          solution vector U in the GLM problem\&.
.fi
.PP
.br
\fIWORK\fP 
.PP
.nf
          WORK is COMPLEX array, dimension (LWORK)
.fi
.PP
.br
\fILWORK\fP 
.PP
.nf
          LWORK is INTEGER
          The dimension of the array WORK\&.
.fi
.PP
.br
\fIRWORK\fP 
.PP
.nf
          RWORK is REAL array, dimension (M)
.fi
.PP
.br
\fIRESULT\fP 
.PP
.nf
          RESULT is REAL
          The test ratio:
                           norm( d - A*x - B*u )
            RESULT = -----------------------------------------
                     (norm(A)+norm(B))*(norm(x)+norm(u))*EPS
.fi
.PP
 
.RE
.PP
\fBAuthor\fP
.RS 4
Univ\&. of Tennessee 
.PP
Univ\&. of California Berkeley 
.PP
Univ\&. of Colorado Denver 
.PP
NAG Ltd\&. 
.RE
.PP

.PP
Definition at line \fB148\fP of file \fBcglmts\&.f\fP\&.
.SH "Author"
.PP 
Generated automatically by Doxygen for LAPACK from the source code\&.