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The case for clusters: looking to maximize server and storage capabilities? Clusters are the key.



With ever-present budget pressure upon them, colleges and universities are being forced to accomplish more with less. That applies to servers, too. In the past, when the demand for administrative functions, research, classroom needs, and student activities got too great, the quick answer might have been to add another server--but no Longer. Now, cluster computing Cluster Computing: the Journal of Networks, Software Tools and Applications is a journal for parallel processing, distributed computing systems, and computer communication networks.  and storage area networks (SANs) can save a school big money on hardware and software costs, and simplify IT maintenance and operation. Instead of individual servers handling different tasks, each machine can easily draw on the other when it needs extra computing resources. The benefits of this system are many.

SERVER SOLUTIONS

Problem: I'm givin" her all she's got, Captain. Intensive computing can slow down even the fastest systems and, as schools adopt even more specialized applications, there's nowhere to go but down.

Solution: One of the main benefits of a cluster is its ability to share resources among a number of servers to speed the system, as the University of Colorado University of Colorado may refer to:
  • University of Colorado at Boulder (flagship campus)
  • University of Colorado at Colorado Springs
  • University of Colorado at Denver and Health Sciences Center
  • University of Colorado system
, Boulder has recently discovered.

The school uses Sun Fire servers from Sun Microsystems Sun Microsystems, Inc. (NASDAQ: JAVA[3]) is an American vendor of computers, computer components, computer software, and information-technology services, founded on 24 February 1982.  (www.sun.com) to help run three processor-intensive applications: WebCT courseware and course management tools; a Web mail application used by about 24,000 students; and PLUS, a secure application that gives students access to their personal information, such as financial aid and health insurance. That kind of drain can lead to many frustrated students and administrators, but since the installation of the servers, the university has already seen a steady increase in the usage of the server applications. "Our IT infrastructure supports 26,850 FTE FTE Full-Time Equivalent
FTE Full-Time Employee
FTE Full-Time Equivalency
FTE Full Time Employment
FTE Foundation for Teaching Economics
FTE Full Time Enrollment
FTE For the Enterprise (SQL)
FTE Fund for Theological Education
 students and 2,000 faculty on our campus. We noticed the value we have added to our students' education efforts and our faculty's work experience with the servers," says Linda Drake, manager of Computing Systems for the school.

Problem: We don't hove the money for more computer equipment. With department budgets being trimmed to the bone, it doesn't make sense to spend more money on technology.

Solution: Industry standards usually mean a university can save big on equipment costs. "Server clusters are being put together very affordably to allow schools to build what becomes, essentially, a supercomputer," says Dean Kline, senior manager of Public Relations public relations, activities and policies used to create public interest in a person, idea, product, institution, or business establishment. By its nature, public relations is devoted to serving particular interests by presenting them to the public in the most  for Dell (www.dell.com). "The cost becomes more manageable and allows the institution to do some very powerful computing." As an example, Kline points to the University at Buffalo (NY), which employs a high-performance computing High-speed computing, which typically refers to supercomputers used in scientific research.  cluster (comprising more than 2,000 servers) and storage area network for human genome The human genome is the genome of Homo sapiens, which is composed of 24 distinct pairs of chromosomes (22 autosomal + X + Y) with a total of approximately 3 billion DNA base pairs containing an estimated 20,000–25,000 genes.  research, bio-informatics, protein structure prediction Protein structure prediction is one of the most important goals pursued by bioinformatics and theoretical chemistry. Its aim is the prediction of the three-dimensional structure of proteins from their amino acid sequences, sometimes including additional relevant information such as , and large-scale computer simulations.

Problem: The need for speed. Remember when you were impressed with a computer that boasted a 386 processor and 8 MB of RAM? Those days are a fond memory when you consider the intense number crunching Refers to computers running mathematical, scientific or CAD applications, which perform large amounts of calculations. See number cruncher.

(application, jargon) number crunching
 power needed for modern research.

Solution: High-performance computing clusters perform trillions of complex calculations per second, accomplishing work that was previously reserved for multimillion dollar mainframe computers. Server clusters can do the job at a fraction of the cost.

"The cluster itself is becoming a computer," says Richard Coffey Richard Lee Coffey (born September 2 1965, in Aurora, North Carolina) is an American former professional basketball player who had a brief stint with the NBA's Minnesota Timberwolves. , IT director at the Scientific Computing and Imagery Institute at the University of Utah The University of Utah (also The U or the U of U or the UU), located in Salt Lake City, is the flagship public research university in the state of Utah, and one of 10 institutions that make up the Utah System of Higher Education. . "It used to be that you used it as a file server, but now we are considering that the cluster itself has a series of elements much Like a computer has a CPU CPU
 in full central processing unit

Principal component of a digital computer, composed of a control unit, an instruction-decoding unit, and an arithmetic-logic unit.
, a network card, and a disk. Now for each cluster we buy, we evaluate it as we would a computer: How is it going to connect to the network? What CPU and memory are we going to need? We look at the cluster the same way we used to look at desktops."

Problem: Looks like we'll have to take it back to the shop. In the past, if a mainframe crashed, or a backup system failed, important information was lost, and productivity came to a standstill.

Solution: If part of a cluster fails, the system stays operational as other machines carry the burden. "Industry-wide standardization is enabling the complex systems to be managed more simply and more affordably," says Dell's Kline. Coffey at the SCI (Scalable Coherent Interface) An IEEE standard for a high-speed bus that uses wire or fiber-optic cable. It can transfer data up to 1GBytes/sec.

(hardware) SCI - 1. Scalable Coherent Interface.

2. UART.
 Institute adds that the cluster allows an IT department to "quickly retool re·tool  
v. re·tooled, re·tool·ing, re·tools

v.tr.
1. To fit out (a factory, for example) with a new set of machinery and tools for making a different product.

2.
 our resources for an emergency response, or for a specific type of research that we are doing." Multiple clusters can be administered from a single "master" administration server, and the standardized technology enables IT staff to quickly react to any situation. "If we ever lose a server, we can quickly swap things out, put an image of the operating system that we need on that new server, and be back up and running in very little time."

Problem: Too much disparate information. Joe Student's admission records are stored on one server, while his financial aid data is stored on another, and his grades are elsewhere. And guess what? Because of some techno-hiccup, those servers currently aren't on speaking terms.

Solution: Consolidating servers and taking advantage of the SAN solutions available for server clusters enables schools to better manage the increasing flow of data they collect. "In the past, we had 25 to 30 servers around the campus, each with its own pocket of data (depending on whether it was for student information, or administrative or staff purposes). Data was spread all over the place," notes Tim Link, CIO CIO: see American Federation of Labor and Congress of Industrial Organizations.


(Chief Information Officer) The executive officer in charge of information processing in an organization.
 of the Ohio State University Ohio State University, main campus at Columbus; land-grant and state supported; coeducational; chartered 1870, opened 1873 as Ohio Agricultural and Mechanical College, renamed 1878. There are also campuses at Lima, Mansfield, Marion, and Newark.  Newark and Central Ohio Technical College Central Ohio Technical College (COTC) is a two-year technical college situated in Newark, Ohio. It is on the same campus as Ohio State University-Newark. COTC offers associate's degrees and certification programs in a number of career fields including business, computers, . "Now, with the clusters and the SAN, we are consolidating all that data and reducing our server requirements by about half. It has really made things so much easier to manage."

Backup is easier, as well. "In the past, it was so difficult running the backup process on all the different servers, with a variety of software packages. It was really a mess," Link says. "We're doing backup much more efficiently, and the SAN solution has been a huge improvement."

Problem: A little help from my friends. Collaboration is the key to research, but if one researcher can't easily exchange information with another, it can be Like trying to drive a car blindfolded blind·fold  
tr.v. blind·fold·ed, blind·fold·ing, blind·folds
1. To cover the eyes of with or as if with a bandage.

2. To prevent from seeing and especially from comprehending.

n.
1.
. You might eventually get where you're going, but there will be plenty of bumps along the way.

Solution: Servers to the rescue. Last December, Harvard University (MA) teamed with IBM (International Business Machines Corporation, Armonk, NY, www.ibm.com) The world's largest computer company. IBM's product lines include the S/390 mainframes (zSeries), AS/400 midrange business systems (iSeries), RS/6000 workstations and servers (pSeries), Intel-based servers (xSeries)  (www.ibm.com) to launch "The Crimson Grid," a high-performance server network that will be used by students and faculty for research, data sharing, and collaboration in such areas as life sciences, engineering, and applied sciences. The project will also help other academic institutions take advantage of grid computing, which taps data and computing resources from different computing systems and makes them available when and where they are needed.

"A grid could potentially provide the tools to solve any type of problem, from a complex literature search to mining the genome," says Jayanta Sircar, CIO of Harvard's Division of Engineering and Applied Sciences. "Harvard's goal is to help create an out-of-the-box implementation of grid computing that will enable students throughout the region to Leverage commonly shared resources for collaborative research and knowledge sharing."

Problem: If I only had a brain. The Engineering Research Center at Mississippi State University Mississippi State University, at Mississippi State, near Starkville; land-grant and state supported; coeducational; chartered 1878 as an agricultural and mechanical college, opened 1880. From 1932 to 1958 it was known as Mississippi State College.  is involved in a wide range of projects for government and industry, testing (through complex simulations) automobile "crash-worthiness," aerodynamics aerodynamics, study of gases in motion. As the principal application of aerodynamics is the design of aircraft, air is the gas with which the science is most concerned. , and material strength, among other things. "The vast amount of computation involved in our studies required a new type of technology that would allow us to maximize our computing resources," says Roger Smith, senior systems administrator of the center.

Solution: The use of IBM's eServer systems gave the research center a 400 percent increase in processing power over its previous cluster, Smith says.

Problem: Spreading ourselves too thin. "One of our constraints had been that when someone came up with an application, we didn't have a server to run the application on," recalls Rich Ferguson, CIO of Quinnipiac University (CT). "We were mapping applications to servers."

Solution: The shared resources and consolidation of the clusters make it easy to expand a system as needed as needed prn. See prn order. . Says Ferguson, "We've reduced the number of servers from 75 (delivering services centrally) to about 40. We're moving now to the model where servers give us an integrated infrastructure that allows us to easily expand as we need to."

Problem: How many IT people does it take to fix a server? No, it's not a joke; we're just pointing out the fact that as technology expands, there is usually the need to add personnel to maintain it.

Solution: Again, the standardized components of a cluster mean easier maintenance and, with it, additional savings in staffing. Says OSU's Link: "We think of our cluster as an environment that can expand in response to demand, so it's not a big deal to expand. Sometimes you can afford the hardware to expand, but you can't afford the staff time to reconfigure everything. That's why having that manageability is critically important here."
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Title Annotation:Technology
Author:Goral, Tim
Publication:University Business
Date:Feb 1, 2004
Words:1480
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