// TODO : we have to check for zeros and negative numbers, or it might crash
if (parameters.size() != 4){
- surf_parse_error("Dragonfly are defined by the number of groups, chassiss per groups, blades per chassis, nodes per blade");
+ surf_parse_error(
+ "Dragonfly are defined by the number of groups, chassis per groups, blades per chassis, nodes per blade");
}
// Blue network : number of groups, number of links between each group
this->numGroups_=xbt_str_parse_int(tmp[0].c_str(), "Invalid number of groups: %s");
this->numLinksBlue_=xbt_str_parse_int(tmp[1].c_str(), "Invalid number of links for the blue level: %s");
- // Black network : number of chassiss/group, number of links between each router on the black network
+ // Black network : number of chassis/group, number of links between each router on the black network
boost::split(tmp, parameters[1], boost::is_any_of(","));
if(tmp.size() != 2) {
surf_parse_error("Dragonfly topologies are defined by 3 levels with 2 elements each, and one with one element");
// The first parts of topo_parameters should be the levels number
this->levels_ = xbt_str_parse_int(parameters[0].c_str(), "First parameter is not the amount of levels: %s");
-
- // Then, a l-sized vector standing for the childs number by level
+
+ // Then, a l-sized vector standing for the children number by level
boost::split(tmp, parameters[1], boost::is_any_of(","));
if(tmp.size() != this->levels_) {
surf_parse_error("Fat trees are defined by the levels number and 3 vectors"
* Create all links that exist in the torus.
* Each rank creates @a dimensions-1 links
*/
- int neighbour_rank_id = 0; // The other node the link connects
- int current_dimension = 0, // which dimension are we currently in?
+ int neighbor_rank_id = 0; // The other node the link connects
+ int current_dimension = 0, // which dimension are we currently in?
// we need to iterate over all dimensions
// and create all links there
- dim_product = 1; // Needed to calculate the next neighbour_id
+ dim_product = 1; // Needed to calculate the next neighbor_id
for (j = 0; j < xbt_dynar_length(dimensions_); j++) {
s_sg_platf_link_cbarg_t link;
memset(&link, 0, sizeof(link));
current_dimension = xbt_dynar_get_as(dimensions_, j, int);
- neighbour_rank_id =
- (((int) rank / dim_product) % current_dimension ==
- current_dimension - 1) ? rank - (current_dimension - 1) * dim_product : rank + dim_product;
+ neighbor_rank_id = (((int)rank / dim_product) % current_dimension == current_dimension - 1)
+ ? rank - (current_dimension - 1) * dim_product
+ : rank + dim_product;
//name of neighbor is not right for non contiguous cluster radicals (as id != rank in this case)
- link_id = bprintf("%s_link_from_%i_to_%i", cluster->id, id, neighbour_rank_id);
+ link_id = bprintf("%s_link_from_%i_to_%i", cluster->id, id, neighbor_rank_id);
link.id = link_id;
link.bandwidth = cluster->bw;
link.latency = cluster->lat;
}
/*
* Add the link to its appropriate position;
- * note that position rankId*(xbt_dynar_length(dimensions)+has_loopack?+has_limiter?)
+ * note that position rankId*(xbt_dynar_length(dimensions)+has_loopback?+has_limiter?)
* holds the link "rankId->rankId"
*/
privateLinks_.insert({position + j, info});
return nullptr;
}
- /** @brief Get the common ancestor and its first childs in each line leading to src and dst */
+ /** @brief Get the common ancestor and its first children in each line leading to src and dst */
static void find_common_ancestors(NetCard* src, NetCard* dst,
/* OUT */ AsImpl** common_ancestor, AsImpl** src_ancestor, AsImpl** dst_ancestor)
{
namespace kernel {
namespace routing {
-/* This derivates from cluster because each host has a private link */
+/* This extends cluster because each host has a private link */
class XBT_PRIVATE AsVivaldi: public AsCluster {
public:
explicit AsVivaldi(As* father, const char* name);
libdw
libunwind
lmm
+loopback
LTL
malloc
Mbytes