1. File and Print Services
Migrating file and print services requires attention
to the physical design. Of course, the first step is to take an
inventory of the application and file servers as well as of the
printers.
Table 1. Server Inventory Table
Characteristic | File Server 1 | File Server 2 | File Server 3 | File Server 4 |
---|
Make and model | | | | |
Memory | | | | |
Disk capacity | | | | |
Storage Adapter Model | | | | |
Type/make/model of storage array | | | | |
MAC address | | | | |
IP address | | | | |
Current user storage and growth requirements | | | | |
Backup storage requirements and growth estimates | | | | |
Redundant file shares | | | | |
Hardware, drivers, peripherals on Microsoft HCL | | | | |
Replace or upgrade suitability | | | | |
Print services, like file services, should be assessed for the migration as part of the physical design. Table 2
is the printer inventory used by Reed Elsevier. Using a printer
inventory permits the examination of printers just as you would servers
to determine whether they are suitable to keep and upgrade, or retire.
Note that some of the information collected here includes an evaluation
of the volume, sizing requirements, network impact, and footprint to see
whether the printer is going to meet future needs. There is no sense in
upgrading a printer that won't meet future needs. In addition, you must
evaluate whether the characteristics of the printer (duplex printing,
color, and so on) match the need of the users and determine whether the
users have complaints about it, such as reliability, accessibility,
features needed, and so on. Printers are an important part of any
computing infrastructure.
Table 2. Printer Inventory
Printer Characteristic | Printer 1 (provide name/location here) | Printer 2 (provide name/location here) |
---|
Printer make, model | | |
Memory | | |
Network or host attached | | |
MAC/IP address | | |
Printer driver version | | |
Current printer volume requirements | | |
Printer availability and accessibility requirements | | |
Specialized printing requirements (large format, collating, binding, and so on) | | |
Existing server suitability for upgrade and remaining book value | | |
File and printer driver and support availability | | |
Current versus future server and printer sizing estimates | | |
Current versus future power and floor space requirements | | |
Network impact of proposed changes | | |
Current versus future maintenance and service contract expenses | | |
2. Selection of ProLiant Servers for the Enterprise
Because the focus of this article is deploying
Windows Server 2003 on ProLiant servers, it's important to provide you
with information on the ProLiant server line as an aid to selecting
ProLiant servers for various roles in the Windows Server 2003
enterprise. Although I recognize that with the evolution of ProLiant
server development, it's impossible for printed media to keep up, the
ProLiant line of servers has been designed to maintain model
identification as much as possible to minimize name changes and still
identify new servers. For instance, the ProLiant DL380 line has been
produced for a number of years and gone through several model numbers,
but still maintains the DL380 name. New models are identified as
“generation” numbers. For instance, the DL380 G1 was generation 1,
whereas the next version was identified as DL380 G2. The basic
characteristics, as described in this section, remain the same as well
as the intended use.
Of course, it's best to get the latest hardware information from the ProLiant server Web site at http://www.hp.com/servers/proliant.
Ultra-Dense ProLiant Blade Servers (BL)
Although the blade server architecture might seem
new, HP began pioneering enterprise blade server design for industry
standard applications in 2001. HP moved to the second phase of blades in
August 2002 as the first major vendor to bring multiprocessor blades to
enterprise customers. Today, HP delivers a rather diverse line of blade
products including the ProLiant BL-e class, single processor,
ultra-dense, front-end blades; and advanced ProLiant BL-p class dual
and, quad-processor blades for midtier and back-end applications. The
newer BL-p class server blades are regarded as “enterprise class”
servers.
The basic idea behind blade servers is consolidation.
The first time I saw a blade server, it was difficult to imagine you
could have a server that looked about the same size as a high-end video
card ten years ago. It is truly impressive to see a comparison of the
amount of space that regular servers take, as opposed to the same number
of blades in an enclosure. Let's look at some basic features of blades
to help you evaluate their potential value in your enterprise.
By allowing servers to share resources provided by an
enclosure, individual servers can be made much more compact. The
architecture not only allows you to put a lot more processing power into
a smaller space, but its modular design also simplifies deployment. In
terms of hardware, two basic components are in a blade server solution:
the blades themselves and the enclosure that houses them. The enclosure
connects the blades installed to the shared resources, and the enclosure
can be configured for I/O options according to your needs. The blades
are complemented by automated deployment software that utilizes
scripting or drive imaging to rapidly deploy a server. Over a gigabit
Ethernet connection using drive imaging, a server can be deployed in ten
minutes. Blade servers save space, drastically reduce cabling, and
simplify installation and the processes in deploying and managing
servers. The ProLiant BL-p series offers multiple processors, the
benefits of the blade architecture, and many of the enterprise class
server features found in ProLiant 300 and 500 series rack mount servers.
As an example, the BL20p blade delivers these enterprise-class
capabilities:
Dual-processor capability
8GB memory capacity
Integrated Smart Array 5i Plus
Dual 3.5-inch SCSI Hot Plug drive bays
Dual Fiber Channel ports, optional for redundant SAN connections
Three 10/100/1000T Ethernet ports
One iLO (integrated Lights-Out) advanced management port
Rack-centralized external shared redundant hot-plug power
These capabilities make the BL20p blades ideal for hosting these applications:
Add in the benefit of storage consolidation to
ProLiant BL-p class blade servers by attaching and even booting blades
from a SAN, and you can build a robust and rapidly adaptable
infrastructure.
Server Classes
Server classes are defined in the Microsoft Systems
Architecture Internet Data Center (MSA IDC) documentation, which
includes recommended applications for each class of server. For example,
ProLiant BL-p class blade servers meet or exceed the requirement to
fill the following roles:
Internet Security and Authentication (ISA) server firewall server
Microsoft Internet Information Services (IIS) Web server
AD DCs
Application Center 2003 staging servers
Microsoft Operations Manager (MOM) server
NetIQ AppManager management server
DNS server
File Transfer Protocol (FTP) server
Simple Mail Transfer Protocol (SMTP) Server
This definition is used to demonstrate how the BL-p series blade features meet data center server classification.
The MSA IDC documentation uses server class definitions to define and categorize server capabilities.
The ProLiant Servers in this section are
classified based on this documentation, which offers a well-defined,
comprehensive, and structured approach to cover all aspects of building
an IDC based on industry standards. The MSA IDC documentation is
available at the Microsoft Web site.