Users Guide
Table Of Contents
- Dell Lifecycle Controller GUI Version 3.00.00.00 User's Guide
- Contents
- Introduction
- Using Lifecycle Controller
- Operating system deployment
- Monitor
- Hardware inventory view and export
- About view and export current inventory
- About view and export factory-shipped inventory
- Viewing hardware inventory — current or factory shipped
- Exporting hardware inventory — current or factory shipped
- Viewing or exporting hardware inventory after part replacement
- Viewing or exporting current inventory after resetting Lifecycle Controller
- Lifecycle Controller log
- Firmware update
- Configure
- System control panel access options
- Configuring iDRAC
- Configuring system time and date
- Configuring vFlash SD card
- Configuring RAID
- Configuring RAID using software RAID
- Creating a secure virtual disk on a RAID controller
- Key encryption
- Local key encryption mode
- Breaking mirrored drives
- System setup — Advanced Hardware Configuration
- Collect system inventory on restart
- Configuring local FTP server
- Configuring a local USB drive
- Configuring NFS and CIFS servers
- Conditions while configuring HTTP server
- Maintain
- Platform restore
- Backup server profile
- Export server profile
- Import server profile
- Import server license
- Part replacement configuration
- Repurpose or retire system
- Hardware diagnostics
- SupportAssist Collection
- Easy-to-use system component names
- Using the system setup and boot manager
- Troubleshooting and frequently asked questions
● RAID 1 — Mirrors or duplicates data from one physical disk to another. If a physical disk fails, data can be rebuilt using the
data from the other side of the mirror. RAID 1 offers good read performance and average write performance with good data
redundancy.
● RAID 5 — Stripes data across the physical disks, and uses parity information to maintain redundant data. If a physical
disk fails, the data can be rebuilt using the parity information. RAID 5 offers good read performance and slower write
performance with good data redundancy.
● RAID 6 — Stripes data across the physical disks, and uses two sets of parity information for additional data redundancy. If
one or two physical disks fail, the data can be rebuilt using the parity information. RAID 6 offers good data redundancy and
read performance but slower write performance.
● RAID 10 — Combines mirrored physical disks with data striping. If a physical disk fails, data can be rebuilt using the mirrored
data. RAID 10 offers good read and write performance with good data redundancy.
●
RAID 50 — A dual-level array that uses multiple RAID 5 sets in a single array. A single physical disk failure can occur in
each of the RAID 5 without any loss of data on the entire array. Although the RAID 50 has increased write performance, its
performance decreases, data or program access gets slower, and transfer speeds on the array are affected when a physical
disk fails and reconstruction takes place.
● RAID 60 — Combines the straight block level striping of RAID 0 with the distributed double parity of RAID 6. The system
must have at least eight physical disks to use RAID 60. Failures while a single physical disk is rebuilding in one RAID 60 set do
not lead to data loss. RAID 60 has improved fault tolerance because more than two physical disks on either span must fail for
data loss to occur.
NOTE: Depending on the type of controllers, some RAID levels are not supported.
Minimum disk requirement for different RAID levels
Table 11. RAID level and number of disks
RAID Level Minimum number of Disks
0 1*
1 2
5 3
6 4
10 4
50 6
60 8
* For PERC S110, S130, and S140 RAID controllers, a minimum of two hard-disk drives are required.
Selecting physical disks
Use the Select Physical Disks screen to select the physical disks to be used for the virtual drive and select the physical disk
drive-related properties.
The number of physical disks required for the virtual disk varies depending on the RAID level. The minimum and maximum
numbers of physical disks required for the RAID level are displayed on the screen.
● Protocol — Select the protocol for the disk pool: Serial Attached SCSI (SAS), Serial ATA (SATA), or NVM Express
(NVMe). SAS drives are used for high performance, while SATA drives are used for a more cost-effective solution. A disk
pool is a logical grouping of physical disk drives on which one or more virtual drives can be created. The protocol is the type
of technology used to implement RAID.
● Media Type — Select the media type for the disk pool: Hard Disk Drives (HDD) or Solid State Disks (SSD). HDDs use
traditional rotational magnetic media for data storage and SSDs implement flash memory for data storage.
● Disk Boot Size — Select one of the following disk block sizes:
○ 512 — indicates that the 512 bytes block size hard drives (HDD) are selected.
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Configure