start_sect
__le32 start_sect;
le32_to_cpu(linuxp->start_sect),
unsigned long start_sect, nr_sects, sectscyl, heads;
start_sect = ((data[0x1fe] << 8) + data[0x1fd]) * sectscyl;
nr_sects = get_capacity(state->disk) - start_sect;
if (start_sect) {
riscix_partition(state, start_sect, slot,
linux_partition(state, start_sect, slot,
start_sect = ((u64) lo_cyl * cylblk);
if ((start_sect + nr_sects) > UINT_MAX) {
start_sect, start_sect + nr_sects);
if (check_add_overflow(start_sect, nr_sects, &end_sect)) {
start_sect, end_sect);
put_partition(state,slot++,start_sect,nr_sects);
u64 start_sect, nr_sects;
offs = start_sect(p)*sector_size;
this_sector = first_sector + start_sect(p) * sector_size;
__le32 start_sect; /* starting sector */
return (sector_t)get_unaligned_le32(&p->start_sect);
le32_to_cpu(p->start_sect),
start_sect(p), nr_sects(p));
sector_t start = start_sect(p)*sector_size;
subtypes[n].parse(state, start_sect(p) * sector_size,
sector_t start_sect = nvmet_lba_to_sect(req->ns, req->cmd->zmr.slba);
ret = blkdev_report_zones(req->ns->bdev, start_sect, req_slba_nr_zones,
pp->start_sect = cpu_to_le32(start_sec);
logical_end = get_unaligned_le32(&largest->start_sect)
__le32 start_sect; /* starting sector counting from 0 */