#include "mlx.h"
static int mlx_av_write_event(
struct mlx_av *av, uint64_t data,
int err, void *context)
{
struct fi_eq_err_entry entry;
size_t size;
uint64_t flags;
entry.fid = &(av->av.fid);
entry.context = context;
entry.data = data;
if (err) {
entry.err = err;
size = sizeof(struct fi_eq_err_entry);
flags = UTIL_FLAG_ERROR;
} else {
size = sizeof(struct fi_eq_entry);
flags = 0;
}
fi_eq_write(
&(av->eq->eq_fid), FI_AV_COMPLETE,
&entry, size, flags);
return FI_SUCCESS;
}
static int mlx_av_remove(
struct fid_av *fi_av, fi_addr_t *fi_addr, size_t count,
uint64_t flags)
{
struct mlx_av *av;
int i;
av = container_of(fi_av, struct mlx_av, av);
if ((av->async) && (!av->eq)) {
return -FI_ENOEQ;
}
for (i = 0; i < count; ++i) {
ucp_ep_destroy((ucp_ep_h)(fi_addr[i]));
}
return FI_SUCCESS;
}
static int mlx_av_insert(
struct fid_av *fi_av, const void *addr, size_t count,
fi_addr_t *fi_addr, uint64_t flags, void *context)
{
struct mlx_av *av;
struct mlx_ep *ep;
int i;
ucs_status_t status = UCS_OK;
int added = 0;
av = container_of(fi_av, struct mlx_av, av);
ep = av->ep;
if ((av->async) && (!av->eq)) {
return -FI_ENOEQ;
}
for ( i = 0; i < count ; ++i) {
ucp_ep_params_t ep_params;
ep_params.address = (const ucp_address_t*)
(&(((const char *)addr)[i*FI_MLX_MAX_NAME_LEN]));
ep_params.field_mask = UCP_EP_PARAM_FIELD_REMOTE_ADDRESS;
FI_WARN( &mlx_prov, FI_LOG_CORE,
"Try to insert address #%d, offset=%d (size=%d)"
" fi_addr=%p \naddr = %s",
i, i*FI_MLX_MAX_NAME_LEN, count,
fi_addr, &(((const char *)addr)[i*FI_MLX_MAX_NAME_LEN]));
status = ucp_ep_create( ep->worker,
&ep_params,
(ucp_ep_h*)(&(fi_addr[i])));
FI_WARN( &mlx_prov, FI_LOG_CORE, "address inserted\n");
if (status == UCS_OK) {
added++;
} else {
if (av->eq) {
mlx_av_write_event( av, i,
MLX_TRANSLATE_ERRCODE(status),
context);
}
}
}
if (av->eq) {
mlx_av_write_event(av, added, 0, context);
count = 0;
} else {
count = added;
}
return count;
}
static int mlx_av_close(fid_t fid)
{
struct mlx_av *fid_av;
fid_av = container_of(fid, struct mlx_av, av);
free (fid_av);
return FI_SUCCESS;
}
static int mlx_av_bind(struct fid *fid, struct fid *bfid, uint64_t flags)
{
struct mlx_av *av;
struct util_eq *eq;
av = container_of(fid, struct mlx_av, av.fid);
if ((!(av->async)) || (bfid->fclass != FI_CLASS_EQ)){
FI_WARN( &mlx_prov, FI_LOG_EP_CTRL,
"Try to bind not a EQ to AV, "
"or attemt to bind EQ and syncronious AV\n");
return -FI_EINVAL;
}
eq = container_of(bfid, struct util_eq, eq_fid.fid);
av->eq = eq;
return FI_SUCCESS;
}
static struct fi_ops mlx_fi_ops = {
.size = sizeof(struct fi_ops),
.close = mlx_av_close,
.bind = mlx_av_bind,
};
static struct fi_ops_av mlx_av_ops = {
.size = sizeof(struct fi_ops_av),
.insert = mlx_av_insert,
.remove = mlx_av_remove,
};
int mlx_av_open(
struct fid_domain *fi_domain, struct fi_av_attr *attr,
struct fid_av **fi_av, void *context)
{
struct mlx_domain *domain;
struct mlx_av *av;
int type = FI_AV_MAP;
size_t count = 64;
domain = container_of(fi_domain, struct mlx_domain, u_domain.domain_fid);
int is_async = 0;
if (attr) {
switch (attr->type) {
case FI_AV_MAP:
type = attr->type;
break;
default:
return -EINVAL;
}
if (attr->flags && FI_EVENT){
is_async = 1;
}
count = attr->count;
}
av = (struct mlx_av *) calloc(1, sizeof(struct mlx_av));
if (!av) {
return -ENOMEM;
}
av->domain = domain;
av->async = is_async;
av->type = type;
av->eq = NULL;
av->addr_len = FI_MLX_MAX_NAME_LEN;
av->count = count;
av->av.fid.fclass = FI_CLASS_AV;
av->av.fid.context = context;
av->av.fid.ops = &mlx_fi_ops;
av->av.ops = &mlx_av_ops;
*fi_av = &av->av;
return FI_SUCCESS;
}