Update of /cvsroot/firebug/firebug/web
In directory sc8-pr-cvs1:/tmp/cvs-serv13817
Modified Files:
spie_2004.tex spie_reviews.tex
Log Message:
Added mehta and zarki review.
Index: spie_2004.tex
===================================================================
RCS file: /cvsroot/firebug/firebug/web/spie_2004.tex,v
retrieving revision 1.9
retrieving revision 1.10
diff -C2 -d -r1.9 -r1.10
*** spie_2004.tex 26 Jul 2003 20:48:09 -0000 1.9
--- spie_2004.tex 27 Jul 2003 00:46:59 -0000 1.10
***************
*** 288,292 ****
! \paragraph{Mehta and El Zarki}~\cite{mehta:v2002} ????
--- 288,324 ----
!
! \paragraph{Mehta and El Zarki}~\cite{mehta:v2002} propose
! a scatternet tree structured network for fixed wireless
! sensor area networks for structural health monitoring
! of bridges, highways and other infrastructure. The algortihm
! allows arbitrary placement of nodes, and does not require
! nodes to be in radio proximity of every other node.
!
! The ``scatternet'' tree is rooted at a network hub, which
! executes most of the scatternet algorithm to build routes for
! each sensor. The algorithm has two phases: discovery and
! connection. During discovery, each node reports all other
! nodes in radio proximity to the hub, which creates a
! neighborhood matrix. The nodes are ``backtracked'' recursively
! using a depth-first search, starting at the hub and passing
! to each node in turn.
! The connection phase is performed by the hub. The tree is
! built using a breadth-first search with statistics such
! as link strength, load factor, and degree, collected during
! discovery phase.
!
!
! The complexity of building the tree increases
! exponentially with the number of nodes, which the authors
! tackle using a simulated annealing (SA) approach.
! The objective function is chosen to minimize the
! load variation across nodes in the subtrees, and
! an energy formulation for this is presented. The
! authors provide a detailed discussion of the SA.
! Results from a simulation implementing the proposed
! method indicate that adaptive methods work better
! for minimizing interference in the resulting
! network.
Index: spie_reviews.tex
===================================================================
RCS file: /cvsroot/firebug/firebug/web/spie_reviews.tex,v
retrieving revision 1.4
retrieving revision 1.5
diff -C2 -d -r1.4 -r1.5
*** spie_reviews.tex 22 Jul 2003 21:02:38 -0000 1.4
--- spie_reviews.tex 27 Jul 2003 00:46:59 -0000 1.5
***************
*** 192,194 ****
! \paragraph{Mehta and El Zarki}~\cite{mehta:v2002} ????
--- 192,225 ----
! \paragraph{Mehta and El Zarki}~\cite{mehta:v2002} propose
! a scatternet tree structured network for fixed wireless
! sensor area networks for structural health monitoring
! of bridges, highways and other infrastructure. The algortihm
! allows arbitrary placement of nodes, and does not require
! nodes to be in radio proximity of every other node.
!
! The ``scatternet'' tree is rooted at a network hub, which
! executes most of the scatternet algorithm to build routes for
! each sensor. The algorithm has two phases: discovery and
! connection. During discovery, each node reports all other
! nodes in radio proximity to the hub, which creates a
! neighborhood matrix. The nodes are ``backtracked'' recursively
! using a depth-first search, starting at the hub and passing
! to each node in turn.
! The connection phase is performed by the hub. The tree is
! built using a breadth-first search with statistics such
! as link strength, load factor, and degree, collected during
! discovery phase.
!
!
! The complexity of building the tree increases
! exponentially with the number of nodes, which the authors
! tackle using a simulated annealing (SA) approach.
! The objective function is chosen to minimize the
! load variation across nodes in the subtrees, and
! an energy formulation for this is presented. The
! authors provide a detailed discussion of the SA.
! Results from a simulation implementing the proposed
! method indicate that adaptive methods work better
! for minimizing interference in the resulting
! network.
|