Nothing adds to an experience like audience participation. Bringing the spectator into the plot adds considerably to the value of an event, as entertainers like Carol Burnett and game show icon Monty Hall can attest. In the world of computer mass storage, though, audience participation has risen to the next level. This represents a welcome change from the traditional "take it or leave it" attitude that many vendors have leveraged over the years.
SNIA's effort to involve CIOs in the plot is made flesh in the organization's Customer Executive Council. Its charter is to benefit both customers and vendors of storage networking technology. Customers benefit by having a direct voice into the storage networking industry to assert their shared storage requirements and strategic goals. Vendors benefit by having a broader exposure to the customer base and its needs. The Customer Executive Council thus provides a means to streamline the process of turning shared storage requirements into solutions, which expands business opportunities for vendors and puts viable products into the customers' hands sooner.
The council and its goals certainly play to the current marketing philosophies of the storage community. Vendors and analysts in the industry all point to the need to identify a customer's "pain" and to develop products, architectures and infrastructures that relieve that "pain" in a profitable way. The CEC is composed of corporate and institutional IT executives and managers who are responsible for the storage strategies of their organizations. End-user participants in the Customer Executive Council are not required to be SNIA members.
Monday, February 05, 2007
Shielded Twisted Pair Cable suits Wi-Fi tower transmissions
Compatible with any system that uses RJ-45 connectors, outdoor-rated, 4-pair 1300A Cable connects point-to-point and point-to-multipoint wireless LAN systems. It features .030 in. thick, UV-resistant PVC jacket with Beldfoil shield bonded to jacket's inner wall. Weather-resistant construction enables stable performance, even in high-traffic RF environments. Cable adheres to TIA/EIA 568-B.2 Category 5e and Power over Ethernet IEEE 802.3af standards.
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RICHMOND, IN - Belden CDT Electronics Division, a world leader in the development of specialty cable products for the broadcast, commercial, industrial and residential markets, recently introduced an outdoor-rated, 4-pair shielded twisted pair (ScTP) cable that meets and exceeds all industry standards for Wi-Fi tower transmissions. The new Wi-Fi cable (Product 1300A) is designed for use in wireless transmission systems provided by manufacturers such as Cisco, Motorola, NetGear, Nokia and other leading providers. WISPs (Wireless Internet Service Providers) also using these systems to provide wireless service to customers include AT&T Wireless, Cingular Wireless, Clearwire, Nextel, SBC and Verizon Wireless.
Belden developed the 1300A Wi-Fi cable in response to rapidly increasing market demand for efficient, convenient wireless networking technology - at home, at work and at play. Numerous businesses have added wireless capability to their wired LANs, and many airports, hotels, casinos and retail establishments now offer public access to Wi-Fi networks, called hot spots or hot zones. Although many of these networks are supported by different industry standards - including Bluetooth, IEEE 802.11a, 802.11b, and 802.11g - Belden Wi-Fi cables are compatible with any system that uses RJ-45 connectors. The cable also adheres to two other applicable standards: TIA/EIA 568-B.2 Category 5e and Power over Ethernet (PoE) IEEE 802.3af.
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RICHMOND, IN - Belden CDT Electronics Division, a world leader in the development of specialty cable products for the broadcast, commercial, industrial and residential markets, recently introduced an outdoor-rated, 4-pair shielded twisted pair (ScTP) cable that meets and exceeds all industry standards for Wi-Fi tower transmissions. The new Wi-Fi cable (Product 1300A) is designed for use in wireless transmission systems provided by manufacturers such as Cisco, Motorola, NetGear, Nokia and other leading providers. WISPs (Wireless Internet Service Providers) also using these systems to provide wireless service to customers include AT&T Wireless, Cingular Wireless, Clearwire, Nextel, SBC and Verizon Wireless.
Belden developed the 1300A Wi-Fi cable in response to rapidly increasing market demand for efficient, convenient wireless networking technology - at home, at work and at play. Numerous businesses have added wireless capability to their wired LANs, and many airports, hotels, casinos and retail establishments now offer public access to Wi-Fi networks, called hot spots or hot zones. Although many of these networks are supported by different industry standards - including Bluetooth, IEEE 802.11a, 802.11b, and 802.11g - Belden Wi-Fi cables are compatible with any system that uses RJ-45 connectors. The cable also adheres to two other applicable standards: TIA/EIA 568-B.2 Category 5e and Power over Ethernet (PoE) IEEE 802.3af.
Cisco curriculum meets government security training standards - Information Systems Security Professional
Cisco Information Systems Security Professional Only Vendor-Specific Curriculum that Meets Standards of the National Security Agency and Committee on National Security Systems
Cisco Systems, Inc. has announced the addition of a government-specific security curriculum for network professionals. The new Information Systems Security (INFOSEC) Professional validates the knowledge and skills specified by the Committee on National Security Systems (CNSS) for federal systems engineers. The INFOSEC Professional is the only vendor-specific curriculum that meets the rigorous standards of the National Security Agency (NSA) and the CNSS.
The INFOSEC curriculum recognizes the knowledge and skills required for managing national critical information infrastructures and networks as specified by the CNSS in the NSTISSI 4011 standard. The CNSS represents a broad cross-section of federal departments and agencies and sets the training standards for information assurance professionals in government and industry. The CNSS is responsible for establishing the NSTISSI No. 4011 standard and for authorizing curriculum that maps to those standards.
"Cisco continues to set the bar for businesses and governments worldwide and we are pleased to provide the networking validation recognized by NSA and CNSS," said Greg Akers, senior vice president, Cisco Systems. "Cisco is at the forefront of security training, being the only industry vendor to provide security training that meets the federal 4011 standard. INFOSEC enhances our ability to provide end-to-end solutions to government partners with comprehensive security products, services and training scaled to meet their needs." A recent report issued by the White House titled, "National Strategy to Secure Cyberspace" stated that one of the major barriers to improving cyber security was "an inability to find sufficient numbers of adequately trained and/or appropriately certified personnel to create and manage secure systems." To meet that need, Cisco will continue to develop certification and training programs designed to improve the skills and knowledge level of federal information assurance professionals.
Candidates for the INFOSEC Professional certification must hold a valid CCNA and pass the corresponding exams. The recommended training for the CCNA certification is available from a global network of Cisco Learning Partners and the Partner E-Learning Connection. Training may be purchased via Cisco Learning Credits and are redeemable at Cisco Learning Partner locations worldwide. VUE and Prometric offer Cisco certification exams at locations worldwide.
Cisco Systems, Inc. has announced the addition of a government-specific security curriculum for network professionals. The new Information Systems Security (INFOSEC) Professional validates the knowledge and skills specified by the Committee on National Security Systems (CNSS) for federal systems engineers. The INFOSEC Professional is the only vendor-specific curriculum that meets the rigorous standards of the National Security Agency (NSA) and the CNSS.
The INFOSEC curriculum recognizes the knowledge and skills required for managing national critical information infrastructures and networks as specified by the CNSS in the NSTISSI 4011 standard. The CNSS represents a broad cross-section of federal departments and agencies and sets the training standards for information assurance professionals in government and industry. The CNSS is responsible for establishing the NSTISSI No. 4011 standard and for authorizing curriculum that maps to those standards.
"Cisco continues to set the bar for businesses and governments worldwide and we are pleased to provide the networking validation recognized by NSA and CNSS," said Greg Akers, senior vice president, Cisco Systems. "Cisco is at the forefront of security training, being the only industry vendor to provide security training that meets the federal 4011 standard. INFOSEC enhances our ability to provide end-to-end solutions to government partners with comprehensive security products, services and training scaled to meet their needs." A recent report issued by the White House titled, "National Strategy to Secure Cyberspace" stated that one of the major barriers to improving cyber security was "an inability to find sufficient numbers of adequately trained and/or appropriately certified personnel to create and manage secure systems." To meet that need, Cisco will continue to develop certification and training programs designed to improve the skills and knowledge level of federal information assurance professionals.
Candidates for the INFOSEC Professional certification must hold a valid CCNA and pass the corresponding exams. The recommended training for the CCNA certification is available from a global network of Cisco Learning Partners and the Partner E-Learning Connection. Training may be purchased via Cisco Learning Credits and are redeemable at Cisco Learning Partner locations worldwide. VUE and Prometric offer Cisco certification exams at locations worldwide.
Monday, January 22, 2007
Global namespace: The Future of File System Management, Part 2 - Storage Networking
IT administrators spend a great deal of time on file management tasks (adding users, adding file servers, rebalancing storage, setting up failover, etc.) and data movement tasks (replication, migration, consolidation, data distribution). These are tedious and time-consuming for administrators, disruptive to users, and expensive for companies.
Companies are looking for better ways to scale and manage their file systems. Global namespace provides the answer.
In "Global Namespace--The Future of File System Management, Part 1," we defined global namespace as a logical layer that sits between clients and file systems for purposes of aggregating multiple, heterogeneous file systems, and presenting file information to users and applications in a single, logical view. The benefits of a global namespace are clear and compelling:
Administrators can add, move, rebalance, and reconfigure physical storage without affecting how users view and access it.
* Global namespace provides a platform for developing value-added functions such as data migration, server consolidation, and disaster recovery.
With a global namespace in place, the administrator can perform data management and data movement tasks in less time, without disrupting user access to files. When files are moved, links in the namespace are automatically updated, which reduces manual administration and ensures continuous client access to data.
In this article, we will discuss how a global namespace simplifies file management, how to create and deploy a namespace, and the solutions it enables in an enterprise environment.
The Problem: File (Data)
Management and File (Data)
Movement
Stephens Company has 600 marketing and engineering users who are accessing files across five file servers that are shared by the two departments located in Houston and New York City. Marketing users are accessing files via multiple drive letters that are mapped to two NetApp filers and a Windows server, and engineering users are accessing files on three servers and one filer.
There are several issues with Stephens Company's current file system environment:
* Users find it difficult to locate and access files via multiple drive letters (which are increasing).
* File server Houl_W2K_Server12 is at 90 percent capacity, while NY_NAS_Server2 is at 20 percent, which means that users are beginning to get errors as they try to save large graphic files to Server12.
* To migrate files and rebalance storage between Houl_W2K_Serverl2 tY_NAS_Server2, the administrator must disable user access to the files that are to be moved, move the files to the NY filer, reboot and bring both devices back online, revise all marketing and engineering user login scripts, and inform users that the files have a new location so that their PCs can be reconfigured to access them. This will require at least 12 hours of downtime and the manual reconfiguration of every desktop and application that accesses the files.
The Solution: Global Namespace
There is a simple, long-term solution to Stephens Company's data management and data movement issues. Deploying a global namespace will simplify data management and enable transparent data movement.
Figure 2 shows the new configuration, in which a global namespace has been inserted between users and physical storage. Users now access their files through shares called \\namespace\users\marketing and \\namespace\users\engineering. This was a non-disruptive installation, as the namespace was installed on top of the existing infrastructure. Users continue to access files in the same manner as before, with no retraining needed.
Note how the file system environment is changed by the introduction of a global namespace:
* All users see a single, logical view of files through the namespace.
* Users access all their files through a single drive letter--which will not grow, and allows them to continue accessing files in a familiar way.
* Data can be organized and presented to users in a way that makes sense to them, irrespective of how or where the data is stored.
* Data management and data movement are performed "behind the veil" of the namespace.
* Data changes are automatically updated in the namespace, and require no client reconfiguration.
* Administrators can expand, move, rebalance, and reconfigure storage without affecting how users view and access it.
* Data management and data movement require far less physical administration and are performed in less time than before.
Having a global namespace in place makes it easy for IT managers to accommodate the changing needs of an organization while also reducing storage costs.
How It Works
Global namespace does for files what DNS does for networking--it provides a directory service. The global namespace resides on a namespace server, which can be any Windows 2000 or Windows 2003 server within the namespace configuration. Clients (users and applications) view and access files through the namespace.
Companies are looking for better ways to scale and manage their file systems. Global namespace provides the answer.
In "Global Namespace--The Future of File System Management, Part 1," we defined global namespace as a logical layer that sits between clients and file systems for purposes of aggregating multiple, heterogeneous file systems, and presenting file information to users and applications in a single, logical view. The benefits of a global namespace are clear and compelling:
Administrators can add, move, rebalance, and reconfigure physical storage without affecting how users view and access it.
* Global namespace provides a platform for developing value-added functions such as data migration, server consolidation, and disaster recovery.
With a global namespace in place, the administrator can perform data management and data movement tasks in less time, without disrupting user access to files. When files are moved, links in the namespace are automatically updated, which reduces manual administration and ensures continuous client access to data.
In this article, we will discuss how a global namespace simplifies file management, how to create and deploy a namespace, and the solutions it enables in an enterprise environment.
The Problem: File (Data)
Management and File (Data)
Movement
Stephens Company has 600 marketing and engineering users who are accessing files across five file servers that are shared by the two departments located in Houston and New York City. Marketing users are accessing files via multiple drive letters that are mapped to two NetApp filers and a Windows server, and engineering users are accessing files on three servers and one filer.
There are several issues with Stephens Company's current file system environment:
* Users find it difficult to locate and access files via multiple drive letters (which are increasing).
* File server Houl_W2K_Server12 is at 90 percent capacity, while NY_NAS_Server2 is at 20 percent, which means that users are beginning to get errors as they try to save large graphic files to Server12.
* To migrate files and rebalance storage between Houl_W2K_Serverl2 tY_NAS_Server2, the administrator must disable user access to the files that are to be moved, move the files to the NY filer, reboot and bring both devices back online, revise all marketing and engineering user login scripts, and inform users that the files have a new location so that their PCs can be reconfigured to access them. This will require at least 12 hours of downtime and the manual reconfiguration of every desktop and application that accesses the files.
The Solution: Global Namespace
There is a simple, long-term solution to Stephens Company's data management and data movement issues. Deploying a global namespace will simplify data management and enable transparent data movement.
Figure 2 shows the new configuration, in which a global namespace has been inserted between users and physical storage. Users now access their files through shares called \\namespace\users\marketing and \\namespace\users\engineering. This was a non-disruptive installation, as the namespace was installed on top of the existing infrastructure. Users continue to access files in the same manner as before, with no retraining needed.
Note how the file system environment is changed by the introduction of a global namespace:
* All users see a single, logical view of files through the namespace.
* Users access all their files through a single drive letter--which will not grow, and allows them to continue accessing files in a familiar way.
* Data can be organized and presented to users in a way that makes sense to them, irrespective of how or where the data is stored.
* Data management and data movement are performed "behind the veil" of the namespace.
* Data changes are automatically updated in the namespace, and require no client reconfiguration.
* Administrators can expand, move, rebalance, and reconfigure storage without affecting how users view and access it.
* Data management and data movement require far less physical administration and are performed in less time than before.
Having a global namespace in place makes it easy for IT managers to accommodate the changing needs of an organization while also reducing storage costs.
How It Works
Global namespace does for files what DNS does for networking--it provides a directory service. The global namespace resides on a namespace server, which can be any Windows 2000 or Windows 2003 server within the namespace configuration. Clients (users and applications) view and access files through the namespace.
Thursday, January 11, 2007
What is mechatronics and why teach it?
Mechatronics has developed in the UK from the mid-1980s to the point where there are currently some 42, three-year and four-year undergraduate courses at 27 UK institutions which involve mechatronics in some way in their title, the distribution being as in Table 1.1 There are also many mechatronics-based programmes and courses around the world, including relatively recent developments in countries such as those in Southern Africa, New Zealand, Lithuania, Hungary, Colombia and Switzerland.2-6 Additionally, there are growing numbers of international conferences supported, among others, by the International Federation of Automatic Control (IFAC), the American Society of Mechanical Engineers (ASME), the Institute of Electrical and Electronic Engineers and the Mechatronics Forum.7-11 These conferences are supplemented by technical journals having mechatronics as their subject area.12,13
However, and despite this world-wide interest in mechatronics, it is still not certain that there is a clear and consistent understanding of what mechatronics is and how, and at what level, it should be taught. A review of the literature about mechatronics will rapidly result in a number of definitions, each of which perhaps seeks to emphasise a slightly different aspect of the mechatronics concept, ranging from design to precision engineering and from sensors to actuators.14,15 Nevertheless, and despite their difference in emphasis, most of the definitions do manage to agree in some way that mechatronics is concerned with the integration of its core technologies to generate new and novel technological solutions in the form of products and systems in which functionality is integrated across those core technologies, with information technology and software engineering then providing the 'glue' which binds the whole together. This integration is also reflected in the various diagrammatic forms that have been used to represent the structure of a mechatronic system, as is seen from the two examples of Fig. 1.
However, and despite this world-wide interest in mechatronics, it is still not certain that there is a clear and consistent understanding of what mechatronics is and how, and at what level, it should be taught. A review of the literature about mechatronics will rapidly result in a number of definitions, each of which perhaps seeks to emphasise a slightly different aspect of the mechatronics concept, ranging from design to precision engineering and from sensors to actuators.14,15 Nevertheless, and despite their difference in emphasis, most of the definitions do manage to agree in some way that mechatronics is concerned with the integration of its core technologies to generate new and novel technological solutions in the form of products and systems in which functionality is integrated across those core technologies, with information technology and software engineering then providing the 'glue' which binds the whole together. This integration is also reflected in the various diagrammatic forms that have been used to represent the structure of a mechatronic system, as is seen from the two examples of Fig. 1.
Brake provides high-efficiency option for rails
Spring-engaged, air-released Profile Rail Brake is designed for max holding and/or dynamic braking. Suited for power-off safety conditions, linear motion control device integrates into profile rail system and is kept disengaged with air pressure. In disengaged mode, brake allows nearly frictionless movement of carriage until air is exhausted and internal springs apply force on brake mechanism that clamps brake onto both sides of rail.
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(Vadnais Heights, Minn. - August 10, 2004) Nexen Group, Inc., today announced the Profile Rail Brake, their newest linear motion control device. The Nexen Profile Rail Brake is the most competitively priced and efficient brake on the market today. This spring-engaged, air-released unit is compact and easy to install in existing systems. It's designed for maximum holding and/or dynamic braking, which makes it ideal for power-off safety conditions.
The rail brake is easily integrated into a profile rail system and is kept disengaged with air pressure. In the disengaged mode, the brake allows nearly frictionless movement of the carriage until air is exhausted and the internal springs apply a force on the brake mechanism that clamps the brake onto both sides of the rail. A normally closed, directional control valve is open to the air supply when energized. In a power-off condition, the valve blocks the air supply allowing air to escape and the springs to apply the force to a clamping mechanism. Nexen's Profile Rail Brake is able to hold large loads in all axes and performs dynamic stops within a short amount of time and distance. This product provides a very high clamping force directly onto the center web of the guide rail. The rail brake has a small air chamber, which means low air consumption, saving energy as well as operating time.
Nexen is a leading manufacturer of brakes, clutches, servo motor and linear motion brakes, torque limiters, overload protection devices, and web tension control systems for a variety of industrial applications ranging from motion control and robotics to packaging and material handling. With headquarters in Vadnais Heights, Minn., Nexen has more than 40 worldwide sales offices and more than 1,500 worldwide distributor sales outlets.
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(Vadnais Heights, Minn. - August 10, 2004) Nexen Group, Inc., today announced the Profile Rail Brake, their newest linear motion control device. The Nexen Profile Rail Brake is the most competitively priced and efficient brake on the market today. This spring-engaged, air-released unit is compact and easy to install in existing systems. It's designed for maximum holding and/or dynamic braking, which makes it ideal for power-off safety conditions.
The rail brake is easily integrated into a profile rail system and is kept disengaged with air pressure. In the disengaged mode, the brake allows nearly frictionless movement of the carriage until air is exhausted and the internal springs apply a force on the brake mechanism that clamps the brake onto both sides of the rail. A normally closed, directional control valve is open to the air supply when energized. In a power-off condition, the valve blocks the air supply allowing air to escape and the springs to apply the force to a clamping mechanism. Nexen's Profile Rail Brake is able to hold large loads in all axes and performs dynamic stops within a short amount of time and distance. This product provides a very high clamping force directly onto the center web of the guide rail. The rail brake has a small air chamber, which means low air consumption, saving energy as well as operating time.
Nexen is a leading manufacturer of brakes, clutches, servo motor and linear motion brakes, torque limiters, overload protection devices, and web tension control systems for a variety of industrial applications ranging from motion control and robotics to packaging and material handling. With headquarters in Vadnais Heights, Minn., Nexen has more than 40 worldwide sales offices and more than 1,500 worldwide distributor sales outlets.
Roomba Is The Last Gadget Standing
It's official. iRobot's Roomba is the Last Gadget Standing. "We'd like to congratulate iRobot," commented event host PC Magazine Editor-in-Chief Michael J. Miller, "Clearly, the Roomba captured the attention of people, both at the session at CES and on the Web site. We'd like to thank all the companies for participating. These products gave us a great view of where consumer electronics is headed."
Since the last gadget focuses on trends that are keepers, our guess is that we'll be back next year at CES to see even more robotics at work.
Here are the complete results of our online poll:
Casio Exilim Zoom EX-Z3 5.65% HP Digital Media Receiver 9.57% iRobot Roomba 33.48% Mitsubishi NetCommand Center 6.96% Nokia 3650 5.65% Samsung DuoCam 3.04% Toshiba Portégé 3500 6.96% Viewsonic Airpanel 17.39% Wherify 11.30% The introduction of the Casio's Casio Exilim EX-M1 camera one year ago proved that a camera could be the size of credit card and still take a good picture. Now, the latest addition to the Exilim series promises an even better picture. Its CCD captures 3.2 megapixels, and the camera has a high-performance 3X optical zoom lens.
HP Digital Media Receiver
HP Digital Media Receiver can connect to multiple PCs, play music and photos on your TV and send photos to your PC's printer for output.
iRobot Roomba
This could be the one vacuum cleaner your spouse wouldn't mind receiving as a present. Roomba is a vacuuming robot. Just press a button and it goes into action, traversing your floors and cleaning as it goes. The Self-Adjusting Cleaning Head can handle uneven floors and the robot works on carpeting
Since the last gadget focuses on trends that are keepers, our guess is that we'll be back next year at CES to see even more robotics at work.
Here are the complete results of our online poll:
Casio Exilim Zoom EX-Z3 5.65% HP Digital Media Receiver 9.57% iRobot Roomba 33.48% Mitsubishi NetCommand Center 6.96% Nokia 3650 5.65% Samsung DuoCam 3.04% Toshiba Portégé 3500 6.96% Viewsonic Airpanel 17.39% Wherify 11.30% The introduction of the Casio's Casio Exilim EX-M1 camera one year ago proved that a camera could be the size of credit card and still take a good picture. Now, the latest addition to the Exilim series promises an even better picture. Its CCD captures 3.2 megapixels, and the camera has a high-performance 3X optical zoom lens.
HP Digital Media Receiver
HP Digital Media Receiver can connect to multiple PCs, play music and photos on your TV and send photos to your PC's printer for output.
iRobot Roomba
This could be the one vacuum cleaner your spouse wouldn't mind receiving as a present. Roomba is a vacuuming robot. Just press a button and it goes into action, traversing your floors and cleaning as it goes. The Self-Adjusting Cleaning Head can handle uneven floors and the robot works on carpeting
Getting 300mm Right the First Time - Technology Information
The semiconductor industry is in the midst of its single most expensive advancementathe shift to 300mm wafers. Analysts are forecasting that chipmakers will spend more than $8 billion on 300mm wafer processing equipment this year alone. The industry's overall investment in this new wafer size is already astronomical and growing steadily. With the cost of a new 300mm fab running in the $2 billion to $3 billion range, both the companies building them, and the industry as a whole, cannot afford mistakes.
This is particularly true for providers of lithography equipment. Many of these 300mm fabs will be built using 248-nanometer deep ultraviolet and 365nm i-line lithography, eventually transitioning to 193nm and then to 157nm lithography. Semiconductor companies do not want to re-introduce completely new lithography platforms to their 300mm fabs at each one of these nodes. Therefore, it is essential that the 300mm lithography equipment installed in these fabs be extendable over these generations of optical lithography. The economics of 300mm demand that lithography providers get 300mm right the first timeaeven if this requires revolutionary innovations.
Right now, the semiconductor market is red-hot and figures to get even hotter. A tight DRAM market and increasing demand for wireless communications and connectivity applications in the consumer market have resulted in strong growth forecasts for the industry. The Semiconductor Industry Association (SIA) reported record chip sales of $15.2 billion for the month of April. According to Dataquest, a division of market research firm GartnerGroup Inc., semiconductor industry revenue should top $220 billion this year, reaching to $320 billion by 2004.
This is particularly true for providers of lithography equipment. Many of these 300mm fabs will be built using 248-nanometer deep ultraviolet and 365nm i-line lithography, eventually transitioning to 193nm and then to 157nm lithography. Semiconductor companies do not want to re-introduce completely new lithography platforms to their 300mm fabs at each one of these nodes. Therefore, it is essential that the 300mm lithography equipment installed in these fabs be extendable over these generations of optical lithography. The economics of 300mm demand that lithography providers get 300mm right the first timeaeven if this requires revolutionary innovations.
Right now, the semiconductor market is red-hot and figures to get even hotter. A tight DRAM market and increasing demand for wireless communications and connectivity applications in the consumer market have resulted in strong growth forecasts for the industry. The Semiconductor Industry Association (SIA) reported record chip sales of $15.2 billion for the month of April. According to Dataquest, a division of market research firm GartnerGroup Inc., semiconductor industry revenue should top $220 billion this year, reaching to $320 billion by 2004.
Monday, January 01, 2007
Shielded Twisted Pair Cable suits Wi-Fi tower transmissions
Compatible with any system that uses RJ-45 connectors, outdoor-rated, 4-pair 1300A Cable connects point-to-point and point-to-multipoint wireless LAN systems. It features .030 in. thick, UV-resistant PVC jacket with Beldfoil shield bonded to jacket's inner wall. Weather-resistant construction enables stable performance, even in high-traffic RF environments. Cable adheres to TIA/EIA 568-B.2 Category 5e and Power over Ethernet IEEE 802.3af standards.
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RICHMOND, IN - Belden CDT Electronics Division, a world leader in the development of specialty cable products for the broadcast, commercial, industrial and residential markets, recently introduced an outdoor-rated, 4-pair shielded twisted pair (ScTP) cable that meets and exceeds all industry standards for Wi-Fi tower transmissions. The new Wi-Fi cable (Product 1300A) is designed for use in wireless transmission systems provided by manufacturers such as Cisco, Motorola, NetGear, Nokia and other leading providers. WISPs (Wireless Internet Service Providers) also using these systems to provide wireless service to customers include AT&T Wireless, Cingular Wireless, Clearwire, Nextel, SBC and Verizon Wireless.
Belden developed the 1300A Wi-Fi cable in response to rapidly increasing market demand for efficient, convenient wireless networking technology - at home, at work and at play. Numerous businesses have added wireless capability to their wired LANs, and many airports, hotels, casinos and retail establishments now offer public access to Wi-Fi networks, called hot spots or hot zones. Although many of these networks are supported by different industry standards - including Bluetooth, IEEE 802.11a, 802.11b, and 802.11g - Belden Wi-Fi cables are compatible with any system that uses RJ-45 connectors. The cable also adheres to two other applicable standards: TIA/EIA 568-B.2 Category 5e and Power over Ethernet (PoE) IEEE 802.3af. Rugged Construction Key to Belden's Wi-Fi Cable Electrical Performance
Since Wi-Fi cables connect point-to-point and point-to-multipoint wireless LAN systems that run from the transmitting/receiving radios on the tower to the base station's internal electronics, they must be exceptionally rugged. Belden's Wi-Fi 1300A cable features a very thick (.030 in.), UV-resistant PVC jacket and has Belden's patented Beldfoil shield bonded to the jacket's inner wall. This durable, weather-resistant construction allows the cable to deliver exceptionally stable electrical performance, even in high-traffic RF (radio frequency) environments.
In addition, Belden's Wi-Fi shielded twisted pair cable is easy to install and can be quickly terminated on standard RJ-45 connectors. Installation is also eased by a 24 AWG stranded tinned copper drain wire and by the sequential marking of the cable's PVC jacket at two-foot intervals.
For more information about Belden's Wi-Fi shielded twisted pair cable, contact Belden CDT Electronics Division, P.O. Box 1980, Richmond, Indiana 47375, or call 1-800-BELDEN-4 to request New Product Bulletin NP230. FAX: 765-983-5294. Or visit the Web site: http://www.belden.com.
About Belden CDT Electronics Division
Belden CDT Electronics Division, a unit of Belden CDT Inc., is a leader in the design, manufacture, and marketing of cable products for the entertainment, residential, industrial and security markets. It also provides highly engineered products for both the aerospace and automotive markets.
Belden CDT Electronics Division is headquartered in Richmond, Indiana, it has manufacturing facilities in North America and Europe and distribution centers in the U.S., Canada, Singapore, Australia and the Netherlands. A majority of Belden's manufacturing, engineering and support functions are registered to the International Organization for Standardization.
Belden CDT Inc., formed in July 2004 through the merger of Belden Inc. and Cable Design Technologies Corp., is one of the largest U.S.-based manufacturers of high-speed electronic cables and focuses on products for the specialty electronics and data networking markets, including connectivity.
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RICHMOND, IN - Belden CDT Electronics Division, a world leader in the development of specialty cable products for the broadcast, commercial, industrial and residential markets, recently introduced an outdoor-rated, 4-pair shielded twisted pair (ScTP) cable that meets and exceeds all industry standards for Wi-Fi tower transmissions. The new Wi-Fi cable (Product 1300A) is designed for use in wireless transmission systems provided by manufacturers such as Cisco, Motorola, NetGear, Nokia and other leading providers. WISPs (Wireless Internet Service Providers) also using these systems to provide wireless service to customers include AT&T Wireless, Cingular Wireless, Clearwire, Nextel, SBC and Verizon Wireless.
Belden developed the 1300A Wi-Fi cable in response to rapidly increasing market demand for efficient, convenient wireless networking technology - at home, at work and at play. Numerous businesses have added wireless capability to their wired LANs, and many airports, hotels, casinos and retail establishments now offer public access to Wi-Fi networks, called hot spots or hot zones. Although many of these networks are supported by different industry standards - including Bluetooth, IEEE 802.11a, 802.11b, and 802.11g - Belden Wi-Fi cables are compatible with any system that uses RJ-45 connectors. The cable also adheres to two other applicable standards: TIA/EIA 568-B.2 Category 5e and Power over Ethernet (PoE) IEEE 802.3af. Rugged Construction Key to Belden's Wi-Fi Cable Electrical Performance
Since Wi-Fi cables connect point-to-point and point-to-multipoint wireless LAN systems that run from the transmitting/receiving radios on the tower to the base station's internal electronics, they must be exceptionally rugged. Belden's Wi-Fi 1300A cable features a very thick (.030 in.), UV-resistant PVC jacket and has Belden's patented Beldfoil shield bonded to the jacket's inner wall. This durable, weather-resistant construction allows the cable to deliver exceptionally stable electrical performance, even in high-traffic RF (radio frequency) environments.
In addition, Belden's Wi-Fi shielded twisted pair cable is easy to install and can be quickly terminated on standard RJ-45 connectors. Installation is also eased by a 24 AWG stranded tinned copper drain wire and by the sequential marking of the cable's PVC jacket at two-foot intervals.
For more information about Belden's Wi-Fi shielded twisted pair cable, contact Belden CDT Electronics Division, P.O. Box 1980, Richmond, Indiana 47375, or call 1-800-BELDEN-4 to request New Product Bulletin NP230. FAX: 765-983-5294. Or visit the Web site: http://www.belden.com.
About Belden CDT Electronics Division
Belden CDT Electronics Division, a unit of Belden CDT Inc., is a leader in the design, manufacture, and marketing of cable products for the entertainment, residential, industrial and security markets. It also provides highly engineered products for both the aerospace and automotive markets.
Belden CDT Electronics Division is headquartered in Richmond, Indiana, it has manufacturing facilities in North America and Europe and distribution centers in the U.S., Canada, Singapore, Australia and the Netherlands. A majority of Belden's manufacturing, engineering and support functions are registered to the International Organization for Standardization.
Belden CDT Inc., formed in July 2004 through the merger of Belden Inc. and Cable Design Technologies Corp., is one of the largest U.S.-based manufacturers of high-speed electronic cables and focuses on products for the specialty electronics and data networking markets, including connectivity.
Sunday, December 31, 2006
Tropos Networks Expands Executive Team, Adds Saar Gillai as VP of Engineering; Former Cisco Wireless Networking Business Unit Vice President Brings En
SUNNYVALE, Calif. -- Tropos Networks, the proven leader in delivering truly ubiquitous, metro-scale, Wi-Fi mesh network systems, today announced the addition of Saar Gillai to its world-class executive management team. Mr. Gillai will serve as Tropos Networks' Vice President of Engineering. In his new role, Mr. Gillai will be responsible for the continued development of the Tropos MetroMesh router and network management product line, reinforcing and extending the company's market and technology leadership.
Mr. Gillai brings more than 20 years of engineering and management experience to Tropos Networks. Most recently, Mr. Gillai was Vice President of Engineering for the Wireless Networking Business Unit of Cisco Systems, where over the past four years he played a key role in building Cisco's enterprise WLAN product line to the number one position in the market, having developed and shipped more than $1.5 billion in products during his tenure. In addition, Mr. Gillai was instrumental in the company's WLAN acquisition and integration strategy, most recently playing a key role in the acquisition, and integration of WLAN equipment provider Airespace. During his tenure with Cisco, Mr. Gillai also held key management positions in product development for the Desktop Switching Business Unit and the Multi Service Switching Business Unit, where he worked closely with major service providers on next generation network architectures.
Prior to Cisco, Mr. Gillai held management positions at Newbridge Networks, where he played a significant role in the development of their ATMnet systems, as well as Rohde & Schwartz Canada and Wasserman Advisors.We are very fortunate to add an executive with Mr. Gillai's talent and experience to our team," said Ron Sege, President and CEO of Tropos Networks. "He brings a track record of engineering success in the networking market to our management team, and will help Tropos Networks further extend our capacity, scalability, network deployment and network management advantages over competitive solutions."
"I am extremely excited to have the opportunity to join such a dynamic company," said Saar Gillai, VP of Engineering of Tropos Networks. "It is rare to see a company achieve such immediate command of a market, and I look forward to utilizing the tremendous engineering talent within Tropos to ensure that our MetroMesh products will continue to be the chosen solution for metro-scale Wi-Fi deployments worldwide."
Tropos Networks also announced that Chris Rittler, formerly the company's Vice President of Product Development, has assumed the newly created position of Vice President of Business Development. In this role, Mr. Rittler will create partnerships with OEMs, strategic relationships with telecommunications equipment manufacturers and alliances with next-generation communications solutions partners.
"Mr. Rittler has worn two hats for an extended time, responsible for both engineering and business development," said Ron Sege. "This organizational change allows him to focus on the critical tasks of building relationships with OEM partners, leveraging telecommunications equipment manufacturers as a sales channel for Tropos products and creating a metro-scale Wi-Fi mesh networking ecosystem."
About Tropos Networks, Inc.
Tropos Networks is the proven leader in delivering truly ubiquitous, metro-scale Wi-Fi mesh network systems. We deliver the fastest, lowest cost and simplest wireless broadband access solutions, as demonstrated by the world's largest installed base of metro-scale Wi-Fi mesh networks. Our innovative MetroMesh(TM) architecture with our patented Predictive Wireless Routing Protocol(TM) (PWRP) allows public safety agencies, municipalities and service providers to quickly and easily deliver city-wide fixed and mobile multi-megabit connectivity for IP-based voice, video and data applications. PWRP is the first and only metro-scale optimized, radio-agnostic, wireless mesh routing protocol, which does with routing software what other approaches attempt to do with expensive hardware. The result is 10x better price/performance than any other approach to the broadband last mile. Tropos Networks is headquartered in Sunnyvale, California. For more information, please visit www.tropos.com, call 408-331-6800 or write to info@tropos.com.
Tropos Networks, Tropos, MetroMesh, PWRP and Metro-Scale Mesh Networking Defined are trademarks of Tropos Networks, Inc. All other brand or product names are trademarks or registered trademarks of their respective holder(s).
Mr. Gillai brings more than 20 years of engineering and management experience to Tropos Networks. Most recently, Mr. Gillai was Vice President of Engineering for the Wireless Networking Business Unit of Cisco Systems, where over the past four years he played a key role in building Cisco's enterprise WLAN product line to the number one position in the market, having developed and shipped more than $1.5 billion in products during his tenure. In addition, Mr. Gillai was instrumental in the company's WLAN acquisition and integration strategy, most recently playing a key role in the acquisition, and integration of WLAN equipment provider Airespace. During his tenure with Cisco, Mr. Gillai also held key management positions in product development for the Desktop Switching Business Unit and the Multi Service Switching Business Unit, where he worked closely with major service providers on next generation network architectures.
Prior to Cisco, Mr. Gillai held management positions at Newbridge Networks, where he played a significant role in the development of their ATMnet systems, as well as Rohde & Schwartz Canada and Wasserman Advisors.We are very fortunate to add an executive with Mr. Gillai's talent and experience to our team," said Ron Sege, President and CEO of Tropos Networks. "He brings a track record of engineering success in the networking market to our management team, and will help Tropos Networks further extend our capacity, scalability, network deployment and network management advantages over competitive solutions."
"I am extremely excited to have the opportunity to join such a dynamic company," said Saar Gillai, VP of Engineering of Tropos Networks. "It is rare to see a company achieve such immediate command of a market, and I look forward to utilizing the tremendous engineering talent within Tropos to ensure that our MetroMesh products will continue to be the chosen solution for metro-scale Wi-Fi deployments worldwide."
Tropos Networks also announced that Chris Rittler, formerly the company's Vice President of Product Development, has assumed the newly created position of Vice President of Business Development. In this role, Mr. Rittler will create partnerships with OEMs, strategic relationships with telecommunications equipment manufacturers and alliances with next-generation communications solutions partners.
"Mr. Rittler has worn two hats for an extended time, responsible for both engineering and business development," said Ron Sege. "This organizational change allows him to focus on the critical tasks of building relationships with OEM partners, leveraging telecommunications equipment manufacturers as a sales channel for Tropos products and creating a metro-scale Wi-Fi mesh networking ecosystem."
About Tropos Networks, Inc.
Tropos Networks is the proven leader in delivering truly ubiquitous, metro-scale Wi-Fi mesh network systems. We deliver the fastest, lowest cost and simplest wireless broadband access solutions, as demonstrated by the world's largest installed base of metro-scale Wi-Fi mesh networks. Our innovative MetroMesh(TM) architecture with our patented Predictive Wireless Routing Protocol(TM) (PWRP) allows public safety agencies, municipalities and service providers to quickly and easily deliver city-wide fixed and mobile multi-megabit connectivity for IP-based voice, video and data applications. PWRP is the first and only metro-scale optimized, radio-agnostic, wireless mesh routing protocol, which does with routing software what other approaches attempt to do with expensive hardware. The result is 10x better price/performance than any other approach to the broadband last mile. Tropos Networks is headquartered in Sunnyvale, California. For more information, please visit www.tropos.com, call 408-331-6800 or write to info@tropos.com.
Tropos Networks, Tropos, MetroMesh, PWRP and Metro-Scale Mesh Networking Defined are trademarks of Tropos Networks, Inc. All other brand or product names are trademarks or registered trademarks of their respective holder(s).
Saturday, December 30, 2006
Audience participation in storage networking - first in / first out - Industry Overview
Nothing adds to an experience like audience participation. Bringing the spectator into the plot adds considerably to the value of an event, as entertainers like Carol Burnett and game show icon Monty Hall can attest. In the world of computer mass storage, though, audience participation has risen to the next level. This represents a welcome change from the traditional "take it or leave it" attitude that many vendors have leveraged over the years.
SNIA's effort to involve CIOs in the plot is made flesh in the organization's Customer Executive Council. Its charter is to benefit both customers and vendors of storage networking technology. Customers benefit by having a direct voice into the storage networking industry to assert their shared storage requirements and strategic goals. Vendors benefit by having a broader exposure to the customer base and its needs. The Customer Executive Council thus provides a means to streamline the process of turning shared storage requirements into solutions, which expands business opportunities for vendors and puts viable products into the customers' hands sooner.
The council and its goals certainly play to the current marketing philosophies of the storage community. Vendors and analysts in the industry all point to the need to identify a customer's "pain" and to develop products, architectures and infrastructures that relieve that "pain" in a profitable way. The CEC is composed of corporate and institutional IT executives and managers who are responsible for the storage strategies of their organizations. End-user participants in the Customer Executive Council are not required to be SNIA members. One of the spark plugs engaged with the CEC is technologist Tom Clark from Nishan Systems. He comments, "The CEC from a strategic point and the Customer Advisory Council from a hands-on level are looking to channel unfiltered customer input into the industry, as opposed to vendor groups that filter." Clark is referring to the number of vendor user groups whose input is filtered to match a company's technology agenda or strategic worldview. The groups also sometimes keep this kind of customer input to themselves for competitive reasons.
Whether exploring pain or identifying satisfaction, input from CIOs and users is one of the grass-roots requirements in charting the technological course of mass storage hardware, software, systems and subsystems. The SNIA outreaches in this area are valuable, and could easily be some of the stars that chart the course to storage's next generations.
SNIA's effort to involve CIOs in the plot is made flesh in the organization's Customer Executive Council. Its charter is to benefit both customers and vendors of storage networking technology. Customers benefit by having a direct voice into the storage networking industry to assert their shared storage requirements and strategic goals. Vendors benefit by having a broader exposure to the customer base and its needs. The Customer Executive Council thus provides a means to streamline the process of turning shared storage requirements into solutions, which expands business opportunities for vendors and puts viable products into the customers' hands sooner.
The council and its goals certainly play to the current marketing philosophies of the storage community. Vendors and analysts in the industry all point to the need to identify a customer's "pain" and to develop products, architectures and infrastructures that relieve that "pain" in a profitable way. The CEC is composed of corporate and institutional IT executives and managers who are responsible for the storage strategies of their organizations. End-user participants in the Customer Executive Council are not required to be SNIA members. One of the spark plugs engaged with the CEC is technologist Tom Clark from Nishan Systems. He comments, "The CEC from a strategic point and the Customer Advisory Council from a hands-on level are looking to channel unfiltered customer input into the industry, as opposed to vendor groups that filter." Clark is referring to the number of vendor user groups whose input is filtered to match a company's technology agenda or strategic worldview. The groups also sometimes keep this kind of customer input to themselves for competitive reasons.
Whether exploring pain or identifying satisfaction, input from CIOs and users is one of the grass-roots requirements in charting the technological course of mass storage hardware, software, systems and subsystems. The SNIA outreaches in this area are valuable, and could easily be some of the stars that chart the course to storage's next generations.
Friday, December 29, 2006
Cisco curriculum meets government security training standards - Information Systems Security Professional
Cisco Information Systems Security Professional Only Vendor-Specific Curriculum that Meets Standards of the National Security Agency and Committee on National Security Systems
Cisco Systems, Inc. has announced the addition of a government-specific security curriculum for network professionals. The new Information Systems Security (INFOSEC) Professional validates the knowledge and skills specified by the Committee on National Security Systems (CNSS) for federal systems engineers. The INFOSEC Professional is the only vendor-specific curriculum that meets the rigorous standards of the National Security Agency (NSA) and the CNSS.
The INFOSEC curriculum recognizes the knowledge and skills required for managing national critical information infrastructures and networks as specified by the CNSS in the NSTISSI 4011 standard. The CNSS represents a broad cross-section of federal departments and agencies and sets the training standards for information assurance professionals in government and industry. The CNSS is responsible for establishing the NSTISSI No. 4011 standard and for authorizing curriculum that maps to those standards.
"Cisco continues to set the bar for businesses and governments worldwide and we are pleased to provide the networking validation recognized by NSA and CNSS," said Greg Akers, senior vice president, Cisco Systems. "Cisco is at the forefront of security training, being the only industry vendor to provide security training that meets the federal 4011 standard. INFOSEC enhances our ability to provide end-to-end solutions to government partners with comprehensive security products, services and training scaled to meet their needs." A recent report issued by the White House titled, "National Strategy to Secure Cyberspace" stated that one of the major barriers to improving cyber security was "an inability to find sufficient numbers of adequately trained and/or appropriately certified personnel to create and manage secure systems." To meet that need, Cisco will continue to develop certification and training programs designed to improve the skills and knowledge level of federal information assurance professionals.
Candidates for the INFOSEC Professional certification must hold a valid CCNA and pass the corresponding exams. The recommended training for the CCNA certification is available from a global network of Cisco Learning Partners and the Partner E-Learning Connection. Training may be purchased via Cisco Learning Credits and are redeemable at Cisco Learning Partner locations worldwide. VUE and Prometric offer Cisco certification exams at locations worldwide.
Cisco Systems, Inc. has announced the addition of a government-specific security curriculum for network professionals. The new Information Systems Security (INFOSEC) Professional validates the knowledge and skills specified by the Committee on National Security Systems (CNSS) for federal systems engineers. The INFOSEC Professional is the only vendor-specific curriculum that meets the rigorous standards of the National Security Agency (NSA) and the CNSS.
The INFOSEC curriculum recognizes the knowledge and skills required for managing national critical information infrastructures and networks as specified by the CNSS in the NSTISSI 4011 standard. The CNSS represents a broad cross-section of federal departments and agencies and sets the training standards for information assurance professionals in government and industry. The CNSS is responsible for establishing the NSTISSI No. 4011 standard and for authorizing curriculum that maps to those standards.
"Cisco continues to set the bar for businesses and governments worldwide and we are pleased to provide the networking validation recognized by NSA and CNSS," said Greg Akers, senior vice president, Cisco Systems. "Cisco is at the forefront of security training, being the only industry vendor to provide security training that meets the federal 4011 standard. INFOSEC enhances our ability to provide end-to-end solutions to government partners with comprehensive security products, services and training scaled to meet their needs." A recent report issued by the White House titled, "National Strategy to Secure Cyberspace" stated that one of the major barriers to improving cyber security was "an inability to find sufficient numbers of adequately trained and/or appropriately certified personnel to create and manage secure systems." To meet that need, Cisco will continue to develop certification and training programs designed to improve the skills and knowledge level of federal information assurance professionals.
Candidates for the INFOSEC Professional certification must hold a valid CCNA and pass the corresponding exams. The recommended training for the CCNA certification is available from a global network of Cisco Learning Partners and the Partner E-Learning Connection. Training may be purchased via Cisco Learning Credits and are redeemable at Cisco Learning Partner locations worldwide. VUE and Prometric offer Cisco certification exams at locations worldwide.
Thursday, December 28, 2006
Using embedded platform management with WBEM/CIM: add IPMI to provide "Last Mile" Manageability for CIM-based solutions - Enterprise Networking
CIM has garnered a lot of attention over the years, much to the delight of vendors and end users alike. The DMTF organization, under the leadership of Winston Bumpus, has shepherded a process that addresses the seemingly never-ending dark tunnel of system complexity and vendor differences. By abstracting the data associated with that complexity into a set of guidelines, users and systems can communicate knowledge in an open way to the benefit of everyone. But what is under the hood of CIM? What practical purpose does it serve in a typical system or network? How does it compare and contrast with other technologies?
Equally, IPMI has also benefited from a multi-vendor consortium. The promoters, Dell, Intel, HP and NEC, over the past five years have standardized the hardware platform management interface to an infinite range of components- power, fans, chassis, controllers, sensors, etc.-and is now supported by 150 other adopters. Both CIM and IPMI thus offer key benefits. But how do they complement each other within the Data Center? How do you exploit these standards and make money doing so?
"Plus ca change, plus c'est la meme chose": The more things change, the more they stay the same. For all the innovation, today's Enterprise Data Center appears to be very similar to the one 10 years ago. Application (and the resulting server) sprawl has always challenged the applications or server administrators to set-up, deploy and manage at the farther corners of the business empire. New technologies still inundate the enterprise with promises of 'breakthrough' ROI--everything is 'web-based.' Everything can be dynamically discovered. Application interoperability is seemingly achieved in a heartbeat. New product offerings promise tantalizing benefits. Symmetrical Multi-Processing (SNIP) clusters simplify management and thus reduce TCO. Deploying new form factors, such as blades technology, appear as the ultimate weapon for dynamic resource allocation, improving price/performance using power saving designs at ever increasing MIPS/rack. Virtualization then takes its place as the new mantra--build systems that can accommodate 'Resources on Demand'--Compute, Storage, I/O are decoupled from the reality of the rack. Grid computing is now 'on tap' in true utility-like fashion. It's enough to make you tear your hair out.
Well, so much for no change--the Data Center remains at the 'center' of the 'data' universe. However, it should come as no surprise that every Data Center is different. Place the same equipment and same number of people in two identical buildings with the same goals of reducing TCO and improving reliability, availability and serviceability, and you'll get two very different results. Why? Well, leaving aside human fallibility, most systems are modular to some degree. Like Lego blocks, the construction process behind it differs. While there are many characteristics to building out a successful Data Center infrastructure, the chances of success increases when using a building block approach based on products that support standards. Vendors who embrace a modular building block approach can deliver very real benefits to the Data Center, especially in delivering interoperable management to server and network administrators. Products that support modularity have three common characteristics:
Standard Interface: A standardized interface within the device that allows you to monitor and control the components as and when it's needed without regard to the BIOS, OS, Processor or color of the box. The ability to manage a modular server like a single system is crucial. This interface then needs to be exposed to support integration with existing management points. This is vital to ensure a holistic and unified view is retained in a complex and dynamic network infrastructure. Finally, this common interface must be 'Always On' (highly available) and be programmatic so that different applications and other standards can support and extend it.
Platform Instrumentation: Platform instrumentation is key, as without a certain level of "embedded intelligence" you'll be left on the outside looking in. And because no network is truly identical or homogenous, cross platform management requirements are pragmatic. This is best achieved by using standards-based building blocks. Standards help provide support for the basic hardware elements that make up a system--processor, fans, temperature, power, chassis, etc., irrespective of the manufacturer or state of the system.
Support Extensibility: Building blocks also have to embrace differentiation. They need to support the common hardware, firmware and software elements but also allow expansion to support unique elements. They also need to be utilized and reusable by other OEMs, OSVs, IHVs and ISVs. This modularity supports differentiation by adding features specific to certain markets while also retaining existing development IP.
Equally, IPMI has also benefited from a multi-vendor consortium. The promoters, Dell, Intel, HP and NEC, over the past five years have standardized the hardware platform management interface to an infinite range of components- power, fans, chassis, controllers, sensors, etc.-and is now supported by 150 other adopters. Both CIM and IPMI thus offer key benefits. But how do they complement each other within the Data Center? How do you exploit these standards and make money doing so?
"Plus ca change, plus c'est la meme chose": The more things change, the more they stay the same. For all the innovation, today's Enterprise Data Center appears to be very similar to the one 10 years ago. Application (and the resulting server) sprawl has always challenged the applications or server administrators to set-up, deploy and manage at the farther corners of the business empire. New technologies still inundate the enterprise with promises of 'breakthrough' ROI--everything is 'web-based.' Everything can be dynamically discovered. Application interoperability is seemingly achieved in a heartbeat. New product offerings promise tantalizing benefits. Symmetrical Multi-Processing (SNIP) clusters simplify management and thus reduce TCO. Deploying new form factors, such as blades technology, appear as the ultimate weapon for dynamic resource allocation, improving price/performance using power saving designs at ever increasing MIPS/rack. Virtualization then takes its place as the new mantra--build systems that can accommodate 'Resources on Demand'--Compute, Storage, I/O are decoupled from the reality of the rack. Grid computing is now 'on tap' in true utility-like fashion. It's enough to make you tear your hair out.
Well, so much for no change--the Data Center remains at the 'center' of the 'data' universe. However, it should come as no surprise that every Data Center is different. Place the same equipment and same number of people in two identical buildings with the same goals of reducing TCO and improving reliability, availability and serviceability, and you'll get two very different results. Why? Well, leaving aside human fallibility, most systems are modular to some degree. Like Lego blocks, the construction process behind it differs. While there are many characteristics to building out a successful Data Center infrastructure, the chances of success increases when using a building block approach based on products that support standards. Vendors who embrace a modular building block approach can deliver very real benefits to the Data Center, especially in delivering interoperable management to server and network administrators. Products that support modularity have three common characteristics:
Standard Interface: A standardized interface within the device that allows you to monitor and control the components as and when it's needed without regard to the BIOS, OS, Processor or color of the box. The ability to manage a modular server like a single system is crucial. This interface then needs to be exposed to support integration with existing management points. This is vital to ensure a holistic and unified view is retained in a complex and dynamic network infrastructure. Finally, this common interface must be 'Always On' (highly available) and be programmatic so that different applications and other standards can support and extend it.
Platform Instrumentation: Platform instrumentation is key, as without a certain level of "embedded intelligence" you'll be left on the outside looking in. And because no network is truly identical or homogenous, cross platform management requirements are pragmatic. This is best achieved by using standards-based building blocks. Standards help provide support for the basic hardware elements that make up a system--processor, fans, temperature, power, chassis, etc., irrespective of the manufacturer or state of the system.
Support Extensibility: Building blocks also have to embrace differentiation. They need to support the common hardware, firmware and software elements but also allow expansion to support unique elements. They also need to be utilized and reusable by other OEMs, OSVs, IHVs and ISVs. This modularity supports differentiation by adding features specific to certain markets while also retaining existing development IP.
Wednesday, December 27, 2006
Rich Kendall, Senior Architect, Will Present Details on The Tarari T9000 in the 'Multifunction Security Equipment' Track at Linley Group's 'Designing
Tarari, Inc.:
WHO: Rich Kendall, Senior Architect at Tarari, Inc. is
participating in Linley Group's "Multifunction Security
Equipment" panel session. Kendall will highlight Tarari's
first chip-level product, the T9000, which accelerates
firewall functions, content filtering, antispam, antivirus,
and other applications. The presentation will cover the inner
workings of the T9000, typical system implementations, and how
developers can program their own "agents" for differentiated
security functions.
WHEN: Friday, September 16, 2005 at 1:15 PM PDT - 3:40 PM PDT
WHAT: Designing Security in Networking Systems
September 16, 2005
Seminar: 9:00 - 4:30 PM
Reception: 4:30 - 5:30 PM
WHERE: DoubleTree Hotel
2050 Gateway Place
San Jose, California 95110
TOPIC: Session 3 - Multifunction Security Equipment
Securing the network now requires a broad range of security
services, including network address translation (NAT),
preventing denial of service (DoS) attacks, intrusion
detection and prevention (IDS/IPS), and scanning incoming
mail for viruses and other malware. Sophisticated hardware
and software is needed to meet these evolving requirements.
Rich Kendall, a senior architect at Tarari, will present the
startup's new content-processing chip and describe how its
unique technology can be used in multifunction security
equipment.
Panelists in this session will include:
Implementing Security on Intel's Dual-Core Processors
Dileep Kulkarni, Strategic Platform Technology Architect,
Intel
Offloading Security Services to the Data Plane
Russell Dietz, CTO, Hifn
Implementing Multilayer Security for Unified Threat Management
Raghib Hussain, CTO, Cavium
A Content Processor with Nine Acceleration Engines
Rich Kendall, Senior Architect, Tarari
About Tarari, Inc.
Tarari, Inc., the award-winning acceleration company headquartered in San Diego, Calif., USA, designs and produces Tarari Content Processors that accelerate and offload compute-intensive, complex algorithms used in XML/Web Services, Network Security
WHO: Rich Kendall, Senior Architect at Tarari, Inc. is
participating in Linley Group's "Multifunction Security
Equipment" panel session. Kendall will highlight Tarari's
first chip-level product, the T9000, which accelerates
firewall functions, content filtering, antispam, antivirus,
and other applications. The presentation will cover the inner
workings of the T9000, typical system implementations, and how
developers can program their own "agents" for differentiated
security functions.
WHEN: Friday, September 16, 2005 at 1:15 PM PDT - 3:40 PM PDT
WHAT: Designing Security in Networking Systems
September 16, 2005
Seminar: 9:00 - 4:30 PM
Reception: 4:30 - 5:30 PM
WHERE: DoubleTree Hotel
2050 Gateway Place
San Jose, California 95110
TOPIC: Session 3 - Multifunction Security Equipment
Securing the network now requires a broad range of security
services, including network address translation (NAT),
preventing denial of service (DoS) attacks, intrusion
detection and prevention (IDS/IPS), and scanning incoming
mail for viruses and other malware. Sophisticated hardware
and software is needed to meet these evolving requirements.
Rich Kendall, a senior architect at Tarari, will present the
startup's new content-processing chip and describe how its
unique technology can be used in multifunction security
equipment.
Panelists in this session will include:
Implementing Security on Intel's Dual-Core Processors
Dileep Kulkarni, Strategic Platform Technology Architect,
Intel
Offloading Security Services to the Data Plane
Russell Dietz, CTO, Hifn
Implementing Multilayer Security for Unified Threat Management
Raghib Hussain, CTO, Cavium
A Content Processor with Nine Acceleration Engines
Rich Kendall, Senior Architect, Tarari
About Tarari, Inc.
Tarari, Inc., the award-winning acceleration company headquartered in San Diego, Calif., USA, designs and produces Tarari Content Processors that accelerate and offload compute-intensive, complex algorithms used in XML/Web Services, Network Security
Tuesday, December 26, 2006
Home networking: the next revenue stream? Operators, phone companies, ISPs and manufacturers are all angling to help consumers link their PCs, TVs and
At the National Cable and Telecommunications Association show in Chicago last May, Adelphia Communications CFO Timothy Rigas used basic math to illustrate the cable industry's fundamental revenue opportunity.
A cable operator charging $40 a month for TV service to a home can raise rates only so far before subscriber resistance or government regulation stops him. That means in order to maximize revenue on his pricey digital cable line, the operator must offer services other than TV and charge for them separately.
The answer, Rigas said, is to bundle telephony service and charge another $40. Add a two-way link to a home security service and collect $40 more. Add a video-conferencing capability and charge another fee. Soon, using little more than that basic cable line, the operator is collecting $150 per household rather than $40--without raising rates or consumer ire.
Cable operators in North America are experimenting with yet another service they can bundle into their offerings, a service AOL chairman and CEO Barry Schuler calls broadband's most powerful new application, or killer app--home networking. At its most basic, home networking connects major electronic appliances--personal computers, televisions, sound systems and more--to one another so that data and ultimately video and sound can be transmitted seamlessly among them.
No one knows how big the market is. Allied Business Intelligence estimated that the market for home gateway equipment alone--the hardware that connects all the equipment--will rise to $7.1 billion in 2006 from $267 million in 2000, excluding service fees. The Strategis Group predicts that 80% of broadband homes will have some kind of home networking by 2006.
Whatever the size, multiple-service cable operators (MSOs) in Canada and the United States are holding trials to iron out technical details and learn which services subscribers are willing to pay for. That's the key to home-networking success.
Analysts say it's still too early to pick the killer home-networking app.
"We're watching closely to see which technologies will be first to gain widespread consumer acceptance and how service providers will successfully manage the customer service responsibilities incumbent with this technology," says Strategis senior analyst Keith Kennebeck.
On the hardware side, traditional set-top-box makers like Scientific-Atlanta (S-A), Pioneer and Motorola are building home-networking equipment. CableLabs is developing CableHome standards aimed at coordinating the technical requirements of equipment that will eventually form the network.
In the United States, Comcast has begun lab testing a networking product made by Maynard, Mass.-based software company Ucentric and could move into field trials by the end of the year, according to Ucentric marketing director Paula Giancola. Comcast officials confirm the trials, but are keeping the details close to the vest. Two other large U.S. MSOs are privately experimenting with Ucentric networking as well, Giancola adds.
The most advanced home-networking trials are taking place in Canada. Toronto-based Rogers Communication, an MSO with 2.3 million cable subscribers, is working with Ucentric on one 50-sub trial and is preparing to launch a second, says Michael Lee, VP and GM of interactive television for Rogers.
Rogers jumped into home networking because, with 14% to 15% broadband penetration--higher than penetration rates in most U.S. systems--it has a more mature market and its subscribers are ready for the next step, Lee says. The Canadian MSO calls its home-networking service "Triple Play" because it includes video, data and voice.
"We're seeing a significant audience of people who are ready to do more things with their computers," he says. "Behaviors like downloading music, people who have multiple PCs and want to connect those PCs together."
The Rogers-Ucentric experiment--which uses a box custom-built by Ucentric for the trials but would likely move onto other hardware when mass marketed--offers a rainbow of services ranging from interactive television (ITV) applications and networked home computers to more exotic fare.
A popular item, Lee says, is linking telephone caller ID to the television. The name and number of the person calling would pop up in a corner of the TV screen so the viewer can decide whether to interrupt, say, Law & Order to take a call from cousin Lily. More broadly, the system allows unified networking on all phones, TVs and PCs, including voice mail.
A cable operator charging $40 a month for TV service to a home can raise rates only so far before subscriber resistance or government regulation stops him. That means in order to maximize revenue on his pricey digital cable line, the operator must offer services other than TV and charge for them separately.
The answer, Rigas said, is to bundle telephony service and charge another $40. Add a two-way link to a home security service and collect $40 more. Add a video-conferencing capability and charge another fee. Soon, using little more than that basic cable line, the operator is collecting $150 per household rather than $40--without raising rates or consumer ire.
Cable operators in North America are experimenting with yet another service they can bundle into their offerings, a service AOL chairman and CEO Barry Schuler calls broadband's most powerful new application, or killer app--home networking. At its most basic, home networking connects major electronic appliances--personal computers, televisions, sound systems and more--to one another so that data and ultimately video and sound can be transmitted seamlessly among them.
No one knows how big the market is. Allied Business Intelligence estimated that the market for home gateway equipment alone--the hardware that connects all the equipment--will rise to $7.1 billion in 2006 from $267 million in 2000, excluding service fees. The Strategis Group predicts that 80% of broadband homes will have some kind of home networking by 2006.
Whatever the size, multiple-service cable operators (MSOs) in Canada and the United States are holding trials to iron out technical details and learn which services subscribers are willing to pay for. That's the key to home-networking success.
Analysts say it's still too early to pick the killer home-networking app.
"We're watching closely to see which technologies will be first to gain widespread consumer acceptance and how service providers will successfully manage the customer service responsibilities incumbent with this technology," says Strategis senior analyst Keith Kennebeck.
On the hardware side, traditional set-top-box makers like Scientific-Atlanta (S-A), Pioneer and Motorola are building home-networking equipment. CableLabs is developing CableHome standards aimed at coordinating the technical requirements of equipment that will eventually form the network.
In the United States, Comcast has begun lab testing a networking product made by Maynard, Mass.-based software company Ucentric and could move into field trials by the end of the year, according to Ucentric marketing director Paula Giancola. Comcast officials confirm the trials, but are keeping the details close to the vest. Two other large U.S. MSOs are privately experimenting with Ucentric networking as well, Giancola adds.
The most advanced home-networking trials are taking place in Canada. Toronto-based Rogers Communication, an MSO with 2.3 million cable subscribers, is working with Ucentric on one 50-sub trial and is preparing to launch a second, says Michael Lee, VP and GM of interactive television for Rogers.
Rogers jumped into home networking because, with 14% to 15% broadband penetration--higher than penetration rates in most U.S. systems--it has a more mature market and its subscribers are ready for the next step, Lee says. The Canadian MSO calls its home-networking service "Triple Play" because it includes video, data and voice.
"We're seeing a significant audience of people who are ready to do more things with their computers," he says. "Behaviors like downloading music, people who have multiple PCs and want to connect those PCs together."
The Rogers-Ucentric experiment--which uses a box custom-built by Ucentric for the trials but would likely move onto other hardware when mass marketed--offers a rainbow of services ranging from interactive television (ITV) applications and networked home computers to more exotic fare.
A popular item, Lee says, is linking telephone caller ID to the television. The name and number of the person calling would pop up in a corner of the TV screen so the viewer can decide whether to interrupt, say, Law & Order to take a call from cousin Lily. More broadly, the system allows unified networking on all phones, TVs and PCs, including voice mail.
Monday, December 25, 2006
The future of CE networking is 1394 not DVI - In the Line of Firewire
THROUGHOUT 2001, despite the recession in the electronics and semiconductor industry, the IEEE 1394 multimedia standard made significant progress.
It emerged as the definitive bus for audio and video connectivity, and gained a foothold in the auto market as the backbone for the networked vehicle. Many new CE and PC peripherals emerged with 1394-Fire Wire-i.LINK.
But a small, dedicated group of engineers still insists that digital video
interface (DVI) provides more benefits than the 1394-Fire Wire-i.LINK standard for digital TV. They continue to advocate DVI as the best answer for moving from analog to digital transmission of video and audio.
DVI has a long history, moving through several design changes before it achieved some design successes in monitors. It really wasn't conceived as a digital TV interface. It suffices as a point-to-point connector to deliver uncompressed video streams from a single source, such as a set-top box (STB) to a display. But to hook more than one digital consumer device to a TV, that TV requires an interface for each device. Each time a user changes the entertainment source, connected devices must be switched. And until recently, the audio section of the DVI specification has been proprietary.
As a result, DVI's not very useful in new PCs. In consumer electronics products, DVI is a reasonable first step in the long-term goal of a fully networked home; but to succeed in this exciting ultimate network, IEEE 1394 is the answer Still, DVI fans make a couple arguments for it. First, only DVI safeguards against copying digital content for profit that major studios want protected. They say the studios all love it, and of course they do: DVI's copy protection is really a "copy-never" scheme that deprives users of the basic right to make a personal copy of video and audio for their own, noncommercial use.
The standard that does protect illegal copying- without denying user right-is 1394. The Digital Transmission Copy Protection protocol (known as 5C) that was developed by the leading advocates of 1394 protects copyrighted video and audio over 1394. It enables three options: copy once, copy never and copy freely. Major studios led by Warner Brothers and Sony Pictures have endorsed it. Others are expected to follow this year.
Users should be their focus, and many of them are insisting on the ability to record digital video in their systems, for their own use --not for profit. The bottom-line question about the new generation of TVs is this: How many consumers will pay $4,000 or more for a next-generation digital TV that is not equipped to record in digital format? My guess: not many and not for long. That makes 1394 clearly a better choice for the consumer.
A second argument from DVI's supporters is that the cable industry supports DVI. But last year, there emerged a clear statement from the Society of Cable Television Executives (SCTE) that the 1394 standard has emerged as the preferred tool for interconnecting A/V signals on a common network, including the link between STBs and digital TV. So, 5C and 1394 appear to have the confidence of this group.
Beyond the copy protection issue, DVI backers also say that only uncompressed video provides optimal, nondistorted images. They also maintain that DVI has the ability to deliver uncompressed video and that the compressed video streamed by IEEE 1394 provides much lower output quality and also may obsolete expensive HDTVs due to format changes.
The 1394 Trade Association's view is that compressing digital signals does not distort output in any way that affects the user. Compare the limits of DVI with 1394's universal, network-creating connectivity. Because 1394's role is to enable many different devices to share high-definition video, audio, IP traffic and other information for display and recording devices, it is a better solution for the user.
It emerged as the definitive bus for audio and video connectivity, and gained a foothold in the auto market as the backbone for the networked vehicle. Many new CE and PC peripherals emerged with 1394-Fire Wire-i.LINK.
But a small, dedicated group of engineers still insists that digital video
interface (DVI) provides more benefits than the 1394-Fire Wire-i.LINK standard for digital TV. They continue to advocate DVI as the best answer for moving from analog to digital transmission of video and audio.
DVI has a long history, moving through several design changes before it achieved some design successes in monitors. It really wasn't conceived as a digital TV interface. It suffices as a point-to-point connector to deliver uncompressed video streams from a single source, such as a set-top box (STB) to a display. But to hook more than one digital consumer device to a TV, that TV requires an interface for each device. Each time a user changes the entertainment source, connected devices must be switched. And until recently, the audio section of the DVI specification has been proprietary.
As a result, DVI's not very useful in new PCs. In consumer electronics products, DVI is a reasonable first step in the long-term goal of a fully networked home; but to succeed in this exciting ultimate network, IEEE 1394 is the answer Still, DVI fans make a couple arguments for it. First, only DVI safeguards against copying digital content for profit that major studios want protected. They say the studios all love it, and of course they do: DVI's copy protection is really a "copy-never" scheme that deprives users of the basic right to make a personal copy of video and audio for their own, noncommercial use.
The standard that does protect illegal copying- without denying user right-is 1394. The Digital Transmission Copy Protection protocol (known as 5C) that was developed by the leading advocates of 1394 protects copyrighted video and audio over 1394. It enables three options: copy once, copy never and copy freely. Major studios led by Warner Brothers and Sony Pictures have endorsed it. Others are expected to follow this year.
Users should be their focus, and many of them are insisting on the ability to record digital video in their systems, for their own use --not for profit. The bottom-line question about the new generation of TVs is this: How many consumers will pay $4,000 or more for a next-generation digital TV that is not equipped to record in digital format? My guess: not many and not for long. That makes 1394 clearly a better choice for the consumer.
A second argument from DVI's supporters is that the cable industry supports DVI. But last year, there emerged a clear statement from the Society of Cable Television Executives (SCTE) that the 1394 standard has emerged as the preferred tool for interconnecting A/V signals on a common network, including the link between STBs and digital TV. So, 5C and 1394 appear to have the confidence of this group.
Beyond the copy protection issue, DVI backers also say that only uncompressed video provides optimal, nondistorted images. They also maintain that DVI has the ability to deliver uncompressed video and that the compressed video streamed by IEEE 1394 provides much lower output quality and also may obsolete expensive HDTVs due to format changes.
The 1394 Trade Association's view is that compressing digital signals does not distort output in any way that affects the user. Compare the limits of DVI with 1394's universal, network-creating connectivity. Because 1394's role is to enable many different devices to share high-definition video, audio, IP traffic and other information for display and recording devices, it is a better solution for the user.
2003 Systems Report
5 FIFTEEN INC. 430 Boston Street Topsfield, MA 01983 Contact: Peter Marsh, President and CEO Phone: (978) 887-6615 Fax: (978) 887-2899 Email: peter.marsh@5fifteen.com Web site: www.5fifteen.com System: Maxim Circulation Operating Environment: Windows NT/2000; Sun server Minimum Hardware Requirements: Any standard Pentium PC
*
ADVANTAGE COMPUTING SYSTEMS 3850 Ranchero Drive Ann Arbor, MI 48108 Contact: Cindy Morphew, Marketing Director Phone: (734) 327-3651 Fax: (734) 327-3620 Email: sales@AdvantageCS.com Web site: www.advantagecs.com System: Publisher's Advantage System Operating Environment: Windows NT/2000; Oracle and SQL server Minimum Hardware Requirements: Depends on system
*
AUTOMATED RESOURCES GROUP, INC.135 Chestnut Ridge Road Montvale, NJ 07645 Contact: Hank Garcia, Executive VP Phone: (201) 391-1500, ext. 514 Fax: (201) 391-3266 Email: hgarcia@callargi.com Web site: www.callargi.com System: ARGI Fulfillment System Operating Environment: Windows 2000, Windows XP Minimum Hardware Requirements: N/A (Application Service Provider)
* CSSC, INC.300 Raritan Center Parkway Edison, NJ 08818 Contact: Ernest Muir, VP, Sales and Marketing Phone: (732) 225-5555, ext. 211 Fax: (732) 417-0482 Email: salesdpt@csscinc.com Web site: www.csscinc.com System: TOPS Operating Environment: UNIX client-server, processors, vendors, relational databases, networks and GUI interfaces. Minimum Hardware Requirements: 64 MB RAM, 2 GB disk, tape backup
*
CWC SOFTWARE, INC.150 Grossman Drive Braintree, MA 02184 Contact: Andrew Conti, Sales Manager Phone: (781) 843-2010 Fax: (781) 843-8365 Email: sales@cwcsoftware.com Web site: www.cwcsoftware.com System: QuickFill Operating Environment: Windows 95, 98, NT, 2000, XP Minimum Hardware Requirements: 486PC, 16 MB RAM
*
DATASYSTEM SOLUTIONS, INC.4350 Shawnee Mission Parkway, Suite 179, Shawnee Mission, KS 66205 Contact: Lorna Fenimore, VP Phone: (913) 362-6969, ext. 133 Fax: (913) 362-6383 Email: lfenimore@datasystem.com Web site: www.datasystem.com System: The Multi-Pub System Operating Environment: NT, Linux or UNIX, with Windows, Macintosh or any Ethernet-based network Minimum Hardware Requirements: Depends on circulation size
*
GLOBAL TURNKEY SYSTEMS, INC.2001 Route 46, Suite 203 Parsippany, NJ 07054 Contact: Sherry Solomon, Sales Support (ext. 678) Phone: (973) 331-1010 or (800) 221-1746 Fax: (973) 331-0042 Email: sales@gtsystems.com Web site: www.gtsystems.com System: UNISON6 Operating Environment: UNIX or Windows Minimum Hardware Requirements: Server: NT, Pentium III, 1 gig RAM, 10 gig RAID
*
LYNX MEDIA, INC.12501 Chandler Boulevard, Suite 202 North Hollywood, CA 91607 Contact: Len Latimer, President Phone: (818) 761-5859 Fax: (818) 761-7099 Email: sales@lynxmedia.com Web site: www.lynxmedia.com System: First Edition Operating Environment: Windows 98/NT/XP/2000. NT or Novell networking Minimum Hardware Requirements: We recommend Pentium 200 Mhz or better with 64 MB memory
*
MEDIA SERVICES GROUP LTD.1 Atlantic Street Stamford, CT 06901 Contact: Alan Mendelson, VP-Sales Phone: (800) 234-4674 Fax: (203) 921-1791 Email: amendelson@msgl.com Web site: www.msgl.com System: CircWorks, BookWorks Operating Environment: Windows NT/2000; UNIX; Linux; ASP service available Minimum Hardware Requirements: Onsite: Pentium PC with 64 MB-plus memory. ASP: Windows or Mac PC plus browser
*
MENDON ASSOCIATES, INC.4195 Dundas Street West, Suite 340 Toronto, Ontario, Canada M8X 1Y4 Contact: A. Jorge de Mendonca, President Phone: (800) 361-1325 Fax: (416) 239-1076 Email: info@mendon.com Web site: www.mendon.com System: MA Circulation Manager 5.3 Operating Environment: MS DOS, Windows Minimum Hardware Requirements: Pentium II 200MWZ
*
NEXTECH SYSTEMS CORP.3671 Old Yorktown Road Shrub Oak, NY 10588 Contact: Robert Stengle, President Phone: (914) 962-6000 Fax: (914) 962-1338 Email: info@nextech-systems.com Web site: www.nextech-systems.com System: Interactive Fulfillment System Operating Environment: Networks (including Novell, Windows NT/2000 and others), DOS-VSE, MVS, Windows 95, 98/NT/2000/XP Minimum Hardware Requirements: 640 KB memory
*
PUBLISHERS SOFTWARE SYSTEMS, INC.511 Washington Street Norwood, MA 02062 Contact: Wayne Zafft, President Phone: (781) 762-8001 Fax: (781) 762-8002 Email: waynezafft@compuserve.com System: MicroScribe Operating Environment: MS-DOS, Windows Minimum Hardware Requirements: 386 PC, 2 MB RAM, 5 MB disk
*
SANDLOT CORP.250 West Center Street, Suite 200 Provo, UT 84601 Contact: Carl Berg Phone: (800) 769-7638 Fax: (801) 373-5066 Email: sales@sandlot.com Web site: www.sandlot.com System: Eclipsenet Environment: Database Server: NT/W2000 or UNIX. Application Server: NT/2000. Client: NT/W2000, Web browser or any XML-aware device. DBMS: MS SQL Server or Oracle. Web Server: Any Minimum Hardware Requirement: Pentium Class
*
*
ADVANTAGE COMPUTING SYSTEMS 3850 Ranchero Drive Ann Arbor, MI 48108 Contact: Cindy Morphew, Marketing Director Phone: (734) 327-3651 Fax: (734) 327-3620 Email: sales@AdvantageCS.com Web site: www.advantagecs.com System: Publisher's Advantage System Operating Environment: Windows NT/2000; Oracle and SQL server Minimum Hardware Requirements: Depends on system
*
AUTOMATED RESOURCES GROUP, INC.135 Chestnut Ridge Road Montvale, NJ 07645 Contact: Hank Garcia, Executive VP Phone: (201) 391-1500, ext. 514 Fax: (201) 391-3266 Email: hgarcia@callargi.com Web site: www.callargi.com System: ARGI Fulfillment System Operating Environment: Windows 2000, Windows XP Minimum Hardware Requirements: N/A (Application Service Provider)
* CSSC, INC.300 Raritan Center Parkway Edison, NJ 08818 Contact: Ernest Muir, VP, Sales and Marketing Phone: (732) 225-5555, ext. 211 Fax: (732) 417-0482 Email: salesdpt@csscinc.com Web site: www.csscinc.com System: TOPS Operating Environment: UNIX client-server, processors, vendors, relational databases, networks and GUI interfaces. Minimum Hardware Requirements: 64 MB RAM, 2 GB disk, tape backup
*
CWC SOFTWARE, INC.150 Grossman Drive Braintree, MA 02184 Contact: Andrew Conti, Sales Manager Phone: (781) 843-2010 Fax: (781) 843-8365 Email: sales@cwcsoftware.com Web site: www.cwcsoftware.com System: QuickFill Operating Environment: Windows 95, 98, NT, 2000, XP Minimum Hardware Requirements: 486PC, 16 MB RAM
*
DATASYSTEM SOLUTIONS, INC.4350 Shawnee Mission Parkway, Suite 179, Shawnee Mission, KS 66205 Contact: Lorna Fenimore, VP Phone: (913) 362-6969, ext. 133 Fax: (913) 362-6383 Email: lfenimore@datasystem.com Web site: www.datasystem.com System: The Multi-Pub System Operating Environment: NT, Linux or UNIX, with Windows, Macintosh or any Ethernet-based network Minimum Hardware Requirements: Depends on circulation size
*
GLOBAL TURNKEY SYSTEMS, INC.2001 Route 46, Suite 203 Parsippany, NJ 07054 Contact: Sherry Solomon, Sales Support (ext. 678) Phone: (973) 331-1010 or (800) 221-1746 Fax: (973) 331-0042 Email: sales@gtsystems.com Web site: www.gtsystems.com System: UNISON6 Operating Environment: UNIX or Windows Minimum Hardware Requirements: Server: NT, Pentium III, 1 gig RAM, 10 gig RAID
*
LYNX MEDIA, INC.12501 Chandler Boulevard, Suite 202 North Hollywood, CA 91607 Contact: Len Latimer, President Phone: (818) 761-5859 Fax: (818) 761-7099 Email: sales@lynxmedia.com Web site: www.lynxmedia.com System: First Edition Operating Environment: Windows 98/NT/XP/2000. NT or Novell networking Minimum Hardware Requirements: We recommend Pentium 200 Mhz or better with 64 MB memory
*
MEDIA SERVICES GROUP LTD.1 Atlantic Street Stamford, CT 06901 Contact: Alan Mendelson, VP-Sales Phone: (800) 234-4674 Fax: (203) 921-1791 Email: amendelson@msgl.com Web site: www.msgl.com System: CircWorks, BookWorks Operating Environment: Windows NT/2000; UNIX; Linux; ASP service available Minimum Hardware Requirements: Onsite: Pentium PC with 64 MB-plus memory. ASP: Windows or Mac PC plus browser
*
MENDON ASSOCIATES, INC.4195 Dundas Street West, Suite 340 Toronto, Ontario, Canada M8X 1Y4 Contact: A. Jorge de Mendonca, President Phone: (800) 361-1325 Fax: (416) 239-1076 Email: info@mendon.com Web site: www.mendon.com System: MA Circulation Manager 5.3 Operating Environment: MS DOS, Windows Minimum Hardware Requirements: Pentium II 200MWZ
*
NEXTECH SYSTEMS CORP.3671 Old Yorktown Road Shrub Oak, NY 10588 Contact: Robert Stengle, President Phone: (914) 962-6000 Fax: (914) 962-1338 Email: info@nextech-systems.com Web site: www.nextech-systems.com System: Interactive Fulfillment System Operating Environment: Networks (including Novell, Windows NT/2000 and others), DOS-VSE, MVS, Windows 95, 98/NT/2000/XP Minimum Hardware Requirements: 640 KB memory
*
PUBLISHERS SOFTWARE SYSTEMS, INC.511 Washington Street Norwood, MA 02062 Contact: Wayne Zafft, President Phone: (781) 762-8001 Fax: (781) 762-8002 Email: waynezafft@compuserve.com System: MicroScribe Operating Environment: MS-DOS, Windows Minimum Hardware Requirements: 386 PC, 2 MB RAM, 5 MB disk
*
SANDLOT CORP.250 West Center Street, Suite 200 Provo, UT 84601 Contact: Carl Berg Phone: (800) 769-7638 Fax: (801) 373-5066 Email: sales@sandlot.com Web site: www.sandlot.com System: Eclipsenet Environment: Database Server: NT/W2000 or UNIX. Application Server: NT/2000. Client: NT/W2000, Web browser or any XML-aware device. DBMS: MS SQL Server or Oracle. Web Server: Any Minimum Hardware Requirement: Pentium Class
*
Sunday, December 24, 2006
A place in the SAN: storage protocols vie for life after fiber channel: new protocols like GFP can help carriers make their Sonet/SDH systems SAN-frie
It's hard to over-emphasize the importance of disaster recovery in the post-9/11 world. By no coincidence, interest in storage area networks has risen among enterprises looking to network their databases. And as interest grows, storage solutions are evolving from dumb storage array or feature-slim NAS systems to sophisticated solutions where factors such as quality of service, features, performance, availability, network support, and standards adherence influence purchase decisions.
The demand for SAN connectivity and the inherent challenges in DIY systems present an opportunity for service providers to add storage to their corporate service portfolios, says Billy Basu, senior business development manager for optical networks at Nortel Networks.
"One of the remaining headaches for enterprises in terms of operational costs is that they need a dedicated routing network for storage, so they essentially have to run their own router network," says Basu. "That means buying protocol converters and leased lines, which is far more expensive for the enterprise than for the telco offering the service. An additional issue with leased fines is Bandwidth--a T1/E1 connection looks pretty fast for things like Web surfing, but for SAN data traffic it's slow. Imagine copying a 10GB database across a network with a T1 line on either end.
For telcos who want to offer SAN services, metro Ethernet can deliver the access bandwidth that SANs need to be attractive. The problem with Ethernet, however, Basu says, is that it's bursty, which makes it tricky for existing storage protocols like Fiber Channel.
"Fiber Channel is a credits-based system--transmit a frame and a credit is recorded," says Basu. "This means good flow control, but if you're using IP, packets will get dropped every time the traffic bursts, In Fiber Channel, that means an unstable fabric, which means the SAN is effectively down."
This is one reason of several why Fiber Channel has been something of a mixed bag as the de facto storage protocol. It's reliable and scalable, but expensive to install and maintain. It also has a history of interoperability problems.
However many vendors say it's the metro Sonet/SDH network that has to change if carriers are serious about cashing in on SAN demand. Some players suggest upgrading Sonet/SDH with GFP--Generic Framing Procedure, a standard defined under ITU G.7041 originally co-invented by Nortel and Lucent Technologies that gives Sonet/SDH the flexibility to handle both variable and fixed-packet transport. However, with new IP-based alternatives to traditional Fiber Channel coming onto the scene, some carriers may be tempted to skip the interim tech and deploy metro DWDM.
Transparent GFP
GFP is in essence a simple protocol-independent standard frame delineation and encapsulation mechanism for mapping Layer 1 and Layer 2 protocols such as Ethernet and Fiber Channel into Sonet/SDH of optical transport networks. This allows carriers to map packet data into arbitrarily sized TDM pipes--for example, taking bursty Ethernet traffic and mapping it into a fixed bandwidth channel.
In general terms, GFP is touted as a way for carriers to cost-effectively develop metro and wide-area multiservice platforms for rolling out new data services over legacy Sonet/SDH infrastructure without the need for an entire network upgrade.
However, a version of GFP called Transparent GFP (GFP-T) is designed to handle storage protocols like Fiber Channel, ESCON and FICON by acting as a sort of extension cord through the network. Data can be split up and redefined at the far end, but there is no packet processing and no termination of the data, so flow control mechanisms such as Fiber Channel are passed through transparently.
What that means for SANs, says Nortel's Basu, is that GFP gives a carrier's Sonet/SDH network the ability to offer SAN services over Ethernet at bandwidth levels that enterprises want.
"For example, if you have a 10GB database and you need to transmit data from one database to another, the service provider can offer an SLA based on how fast the database is updated, or the speed of the transmission," Basu says, "Just take out the routers and use GFP."
Another key enabler that GFP offers, Basu adds, is that it can expand the reach of SANs over much longer distances.
"You can't do long-distance SANs right now because everyone's doing it with routers and protocol converters," he says. "All those protocol conversions get in the way."
Adoption of GFP is a bit forward-looking, since GFP-compliant products are hard to come by, says Yankee Group senior analyst Pat Matthews.
"GFP is still in its infancy," he observes "For many carriers focusing on their current infrastructure and services is far more important than rolling out new services via GFP. Before implementing GFP, carriers will also have to deal with how to offer the new services."
Matthews also points out that while GFP brings carriers benefits such as the ability to launch new services while avoiding interoperability issues surrounding proprietary bandwidth framing, and mapping techniques with]n the same networks (and in the process allowing them to prolong the life of their current Sonet/SDH infrastructure), it has some drawbacks as well,
The demand for SAN connectivity and the inherent challenges in DIY systems present an opportunity for service providers to add storage to their corporate service portfolios, says Billy Basu, senior business development manager for optical networks at Nortel Networks.
"One of the remaining headaches for enterprises in terms of operational costs is that they need a dedicated routing network for storage, so they essentially have to run their own router network," says Basu. "That means buying protocol converters and leased lines, which is far more expensive for the enterprise than for the telco offering the service. An additional issue with leased fines is Bandwidth--a T1/E1 connection looks pretty fast for things like Web surfing, but for SAN data traffic it's slow. Imagine copying a 10GB database across a network with a T1 line on either end.
For telcos who want to offer SAN services, metro Ethernet can deliver the access bandwidth that SANs need to be attractive. The problem with Ethernet, however, Basu says, is that it's bursty, which makes it tricky for existing storage protocols like Fiber Channel.
"Fiber Channel is a credits-based system--transmit a frame and a credit is recorded," says Basu. "This means good flow control, but if you're using IP, packets will get dropped every time the traffic bursts, In Fiber Channel, that means an unstable fabric, which means the SAN is effectively down."
This is one reason of several why Fiber Channel has been something of a mixed bag as the de facto storage protocol. It's reliable and scalable, but expensive to install and maintain. It also has a history of interoperability problems.
However many vendors say it's the metro Sonet/SDH network that has to change if carriers are serious about cashing in on SAN demand. Some players suggest upgrading Sonet/SDH with GFP--Generic Framing Procedure, a standard defined under ITU G.7041 originally co-invented by Nortel and Lucent Technologies that gives Sonet/SDH the flexibility to handle both variable and fixed-packet transport. However, with new IP-based alternatives to traditional Fiber Channel coming onto the scene, some carriers may be tempted to skip the interim tech and deploy metro DWDM.
Transparent GFP
GFP is in essence a simple protocol-independent standard frame delineation and encapsulation mechanism for mapping Layer 1 and Layer 2 protocols such as Ethernet and Fiber Channel into Sonet/SDH of optical transport networks. This allows carriers to map packet data into arbitrarily sized TDM pipes--for example, taking bursty Ethernet traffic and mapping it into a fixed bandwidth channel.
In general terms, GFP is touted as a way for carriers to cost-effectively develop metro and wide-area multiservice platforms for rolling out new data services over legacy Sonet/SDH infrastructure without the need for an entire network upgrade.
However, a version of GFP called Transparent GFP (GFP-T) is designed to handle storage protocols like Fiber Channel, ESCON and FICON by acting as a sort of extension cord through the network. Data can be split up and redefined at the far end, but there is no packet processing and no termination of the data, so flow control mechanisms such as Fiber Channel are passed through transparently.
What that means for SANs, says Nortel's Basu, is that GFP gives a carrier's Sonet/SDH network the ability to offer SAN services over Ethernet at bandwidth levels that enterprises want.
"For example, if you have a 10GB database and you need to transmit data from one database to another, the service provider can offer an SLA based on how fast the database is updated, or the speed of the transmission," Basu says, "Just take out the routers and use GFP."
Another key enabler that GFP offers, Basu adds, is that it can expand the reach of SANs over much longer distances.
"You can't do long-distance SANs right now because everyone's doing it with routers and protocol converters," he says. "All those protocol conversions get in the way."
Adoption of GFP is a bit forward-looking, since GFP-compliant products are hard to come by, says Yankee Group senior analyst Pat Matthews.
"GFP is still in its infancy," he observes "For many carriers focusing on their current infrastructure and services is far more important than rolling out new services via GFP. Before implementing GFP, carriers will also have to deal with how to offer the new services."
Matthews also points out that while GFP brings carriers benefits such as the ability to launch new services while avoiding interoperability issues surrounding proprietary bandwidth framing, and mapping techniques with]n the same networks (and in the process allowing them to prolong the life of their current Sonet/SDH infrastructure), it has some drawbacks as well,
Inrange Lab Vets ADVA Networking Solutions - Brief Article
Germany's ADVA Optical Networking [FSE: ADV], a provider of optical networking technology, says Inrange Technologies [Nasdaq: INRG], which offers high-availability, enterprise connectivity and storage-networking capabilities, qualified ADVA's Fiber Service Platform (FSP) systems with its line of IN-VSN FC/9000 Fibre Channel Directors. The testing was performed at Inrange's Interoperability Initiative Lab (I3), in Lumberton, N.J. The new FSP features, including 2:1 time-division multiplexing functionality and a 2 Gigabit Fibre Channel card, were qualified along with the 64-, 128-, and 256-port models of the FC/9000.
"I3 interoperability testing assures customers that ADVA's Fiber Service Platform is fully interoperable with Inrange's FC/9000, enabling customers to extend their storage networks across the enterprise and benefit from reliable and economical data availability," says Dale Lafferty, Inrange's vice president of marketing and alliances. Both companies will be exhibiting their technologies at next month's CeBIT show Hannover, Germany.
"I3 interoperability testing assures customers that ADVA's Fiber Service Platform is fully interoperable with Inrange's FC/9000, enabling customers to extend their storage networks across the enterprise and benefit from reliable and economical data availability," says Dale Lafferty, Inrange's vice president of marketing and alliances. Both companies will be exhibiting their technologies at next month's CeBIT show Hannover, Germany.
Saturday, December 23, 2006
Home Networking: National Semiconductor to Expand Networking in the Home; Company to Include Tut Systems' HomeRun Technology in New Line of Networking
National Semiconductor Corporation Monday announced it has signed an agreement with Tut Systems to license Tut's HomeRun technology for use in its single-chip Ethernet physical layer transceiver solution for home networking.
HomeRun technology allows consumers to link computers, and share peripherals and Internet access over existing home phone lines without interfering with normal telephone installation or services. With its next-generation PHYTER device, National will combine its Ethernet technology and Tut's 1Mbps HomeRun technology onto one chip, thus allowing PC and peripheral manufacturers to address both the home and Ethernet markets with one solution.
Today more than 40 million U.S. households own PCs, and analysts(1) estimate that 15 million of these have multiple PCs. With this number expected to double by the year 2000, consumers are now looking for a simple way to network their multiple PCs together. Scheduled for production in the first half of 1999, National's PHYTER home-networking solution gives manufacturers greater flexibility in addressing this rapidly expanding market. PHYTER will be compliant with the first specification for low-cost networking using existing telephone wiring, expected to be published by the Home Phoneline Networking Alliance (HPNA) this quarter.
"National is committed to drive the future of communications," said Robert Penn, senior vice president and general manager of National's Communications and Consumer Group. "The inclusion of this new technology is a major step in our strategy to support the dramatic increase in TCP/IP traffic, whether within the home, over the Internet, or private networks Certainly this home-networking solution gives National another powerful tool to increase the viability of computing within the home, since resources can now be located where most convenient, and shared between users. "The companies' vision is to have a simple IP network within the home to interconnect low-cost Information Appliances, peripherals and Internet access devices," said Penn. "This agreement, our acquisition of ComCore for its revolutionary DSP technology, and our major investments in the development of Gigabit Ethernet are all critical elements in National's commitment to being a leader in the networking market today and in the future."
"Our HomeRun technology was designed from the outset to make it simple and cost effective for silicon providers to add a home networking capability to existing chip designs," said Sal D'Auria, president of Tut Systems. "National Semiconductor and its Cyrix subsidiary are pioneers in the networking and sub-$1,000 PC markets. Our HomeRun technology is a perfect complement to National's expertise in these areas. We are excited about the opportunity to work with National in expanding connectivity in the home."
HomeRun technology allows consumers to link computers, and share peripherals and Internet access over existing home phone lines without interfering with normal telephone installation or services. With its next-generation PHYTER device, National will combine its Ethernet technology and Tut's 1Mbps HomeRun technology onto one chip, thus allowing PC and peripheral manufacturers to address both the home and Ethernet markets with one solution.
Today more than 40 million U.S. households own PCs, and analysts(1) estimate that 15 million of these have multiple PCs. With this number expected to double by the year 2000, consumers are now looking for a simple way to network their multiple PCs together. Scheduled for production in the first half of 1999, National's PHYTER home-networking solution gives manufacturers greater flexibility in addressing this rapidly expanding market. PHYTER will be compliant with the first specification for low-cost networking using existing telephone wiring, expected to be published by the Home Phoneline Networking Alliance (HPNA) this quarter.
"National is committed to drive the future of communications," said Robert Penn, senior vice president and general manager of National's Communications and Consumer Group. "The inclusion of this new technology is a major step in our strategy to support the dramatic increase in TCP/IP traffic, whether within the home, over the Internet, or private networks Certainly this home-networking solution gives National another powerful tool to increase the viability of computing within the home, since resources can now be located where most convenient, and shared between users. "The companies' vision is to have a simple IP network within the home to interconnect low-cost Information Appliances, peripherals and Internet access devices," said Penn. "This agreement, our acquisition of ComCore for its revolutionary DSP technology, and our major investments in the development of Gigabit Ethernet are all critical elements in National's commitment to being a leader in the networking market today and in the future."
"Our HomeRun technology was designed from the outset to make it simple and cost effective for silicon providers to add a home networking capability to existing chip designs," said Sal D'Auria, president of Tut Systems. "National Semiconductor and its Cyrix subsidiary are pioneers in the networking and sub-$1,000 PC markets. Our HomeRun technology is a perfect complement to National's expertise in these areas. We are excited about the opportunity to work with National in expanding connectivity in the home."
Virtual private storage delivers large-scale storage consolidation payoff - Storage Networking
Even in this prolonged economic downturn, storage capacity continues to grow. In fact, a recent study by the Meta Group projects a 90 percent annual growth rate over the next two years. Faced with this challenge, consolidation has emerged as the Holy Grail for enterprise storage managers. It is the key to gaining control over the continuously expanding storage capacity while reigning in the rapidly escalating cost of managing storage. Declares John McArthur, Group vice president, Worldwide Storage Research at International Data Corp. (LDC), Framingham, Mass.: "Our research confirms that storage consolidation provides real operational benefits and delivers real savings."
Simply put, storage consolidation enables administrators to reduce the number of storage systems needed to support data center applications, lowering costs across the board. For example, reducing the number of storage systems in a data center frees up floor space and lowers operating expenses because the power and air conditioning requirements of the data center decrease. The real payoff, however, comes from the reduced complexity--fewer systems to be managed with corresponding increase in administrator productivity--as well as increased storage utilization and a reduction in software and maintenance costs.
Meeting the Capacity Challenge: Consolidation and SANs The first phase of storage consolidation was the relocation of storage back to the data center. Storage that had moved out of the data center with the introduction of low cost open systems servers is now migrating back as the costs of managing the growth of storage increases. Storage Area Networks (SANs) have provided the connectivity to enable large-scale consolidation around sharable pools of storage. Logical units (LUNs) of storage can be reallocated among servers from these easily expandable pools of storage through SAN management tools without the need to physically re-cable the storage devices. No longer does one server run out of storage without being able to tap excess storage on another server. SANs, in effect, allow enterprises to stay ahead of the ever-expanding need for storage capacity without worrying about how much storage each server will need when.
Beyond sheer storage capacity, enterprises are facing an even higher growth in transaction rates against that data As more businesses expand their markets and provide services online, the volume of transactions against a given amount of storage is increasing dramatically. Front office applications such as retail point-of-sale, web serving, funds transfers, online banking, airline reservations, and others, drive a host of back office application transactions. The need for real-time billing cycles, supply chain management, and CRM further increase the transaction load.
This growth in transaction rates complicates storage consolidation. An increase in transaction rates requires an increase in servers. As more transaction servers are brought on line, they need additional connectivity and bandwidth to the same storage source. Many older storage systems have had to add storage controllers to satisfy this demand for connectivity and bandwidth, even though they are using only a fraction of their maximum storage capacity. In addition to the cost of another controller, applications may need to be split into multiple instances, data may need to be duplicated; and additional software licenses are required. Adding controllers negates many of the benefits of storage consolidation.
Meeting the Bandwidth Challenge: Virtual Private Storage
As more and more servers were connected to the storage network, the number of physical ports available in a storage system also became a concern. Customers began asking for an increase in storage ports from 16 to 32 to 64, which would have added a great deal of cost and left underutilized port bandwidth on the table. While most Fibre Channel ports today have a bandwidth of 200MB/s, most applications are only transferring at 5 or 10MB/s. This will become an even bigger gap when the industry moves to 10GB/s speeds.
One possible solution was to connect many servers through the same storage port, but users were reluctant to do so since the servers all have to share the same set of LUN addresses. Only one server could use LUN 0 for system boot, and all the other LUN addresses had to be carefully partitioned between the servers in order to avoid corruption of each other's data.
Hitachi responded by virtualizing the storage ports so that each physical port looked like 128 virtual ports. Unlike physical ports that require a mode set to communicate with different host platforms and thus can handle only one flavor of host, virtual ports can support many heterogeneous open systems platforms simultaneously (see figure).
This works because each virtual port can be assigned its own virtual private storage space so that multiple heterogeneous hosts that share the same physical port no longer need to share the same LUN address space. They can reboot independently through their own LUN 0 and there is no danger of overwriting each other's data. This ensures safe multi-tenancy; that is, multiple heterogeneous hosts can safely share a common physical storage system. Virtual private storage is analogous to virtual private networks in the IF networking world.
Simply put, storage consolidation enables administrators to reduce the number of storage systems needed to support data center applications, lowering costs across the board. For example, reducing the number of storage systems in a data center frees up floor space and lowers operating expenses because the power and air conditioning requirements of the data center decrease. The real payoff, however, comes from the reduced complexity--fewer systems to be managed with corresponding increase in administrator productivity--as well as increased storage utilization and a reduction in software and maintenance costs.
Meeting the Capacity Challenge: Consolidation and SANs The first phase of storage consolidation was the relocation of storage back to the data center. Storage that had moved out of the data center with the introduction of low cost open systems servers is now migrating back as the costs of managing the growth of storage increases. Storage Area Networks (SANs) have provided the connectivity to enable large-scale consolidation around sharable pools of storage. Logical units (LUNs) of storage can be reallocated among servers from these easily expandable pools of storage through SAN management tools without the need to physically re-cable the storage devices. No longer does one server run out of storage without being able to tap excess storage on another server. SANs, in effect, allow enterprises to stay ahead of the ever-expanding need for storage capacity without worrying about how much storage each server will need when.
Beyond sheer storage capacity, enterprises are facing an even higher growth in transaction rates against that data As more businesses expand their markets and provide services online, the volume of transactions against a given amount of storage is increasing dramatically. Front office applications such as retail point-of-sale, web serving, funds transfers, online banking, airline reservations, and others, drive a host of back office application transactions. The need for real-time billing cycles, supply chain management, and CRM further increase the transaction load.
This growth in transaction rates complicates storage consolidation. An increase in transaction rates requires an increase in servers. As more transaction servers are brought on line, they need additional connectivity and bandwidth to the same storage source. Many older storage systems have had to add storage controllers to satisfy this demand for connectivity and bandwidth, even though they are using only a fraction of their maximum storage capacity. In addition to the cost of another controller, applications may need to be split into multiple instances, data may need to be duplicated; and additional software licenses are required. Adding controllers negates many of the benefits of storage consolidation.
Meeting the Bandwidth Challenge: Virtual Private Storage
As more and more servers were connected to the storage network, the number of physical ports available in a storage system also became a concern. Customers began asking for an increase in storage ports from 16 to 32 to 64, which would have added a great deal of cost and left underutilized port bandwidth on the table. While most Fibre Channel ports today have a bandwidth of 200MB/s, most applications are only transferring at 5 or 10MB/s. This will become an even bigger gap when the industry moves to 10GB/s speeds.
One possible solution was to connect many servers through the same storage port, but users were reluctant to do so since the servers all have to share the same set of LUN addresses. Only one server could use LUN 0 for system boot, and all the other LUN addresses had to be carefully partitioned between the servers in order to avoid corruption of each other's data.
Hitachi responded by virtualizing the storage ports so that each physical port looked like 128 virtual ports. Unlike physical ports that require a mode set to communicate with different host platforms and thus can handle only one flavor of host, virtual ports can support many heterogeneous open systems platforms simultaneously (see figure).
This works because each virtual port can be assigned its own virtual private storage space so that multiple heterogeneous hosts that share the same physical port no longer need to share the same LUN address space. They can reboot independently through their own LUN 0 and there is no danger of overwriting each other's data. This ensures safe multi-tenancy; that is, multiple heterogeneous hosts can safely share a common physical storage system. Virtual private storage is analogous to virtual private networks in the IF networking world.
Friday, December 22, 2006
Global namespace: The Future of File System Management, Part 2 - Storage Networking
IT administrators spend a great deal of time on file management tasks (adding users, adding file servers, rebalancing storage, setting up failover, etc.) and data movement tasks (replication, migration, consolidation, data distribution). These are tedious and time-consuming for administrators, disruptive to users, and expensive for companies.
Companies are looking for better ways to scale and manage their file systems. Global namespace provides the answer.
In "Global Namespace--The Future of File System Management, Part 1," we defined global namespace as a logical layer that sits between clients and file systems for purposes of aggregating multiple, heterogeneous file systems, and presenting file information to users and applications in a single, logical view. The benefits of a global namespace are clear and compelling:
* Users (and applications) are shielded from physical storage complexities. Administrators can add, move, rebalance, and reconfigure physical storage without affecting how users view and access it.
* Global namespace provides a platform for developing value-added functions such as data migration, server consolidation, and disaster recovery.
With a global namespace in place, the administrator can perform data management and data movement tasks in less time, without disrupting user access to files. When files are moved, links in the namespace are automatically updated, which reduces manual administration and ensures continuous client access to data.
In this article, we will discuss how a global namespace simplifies file management, how to create and deploy a namespace, and the solutions it enables in an enterprise environment.
The Problem: File (Data)
Management and File (Data)
Movement
Stephens Company has 600 marketing and engineering users who are accessing files across five file servers that are shared by the two departments located in Houston and New York City. Marketing users are accessing files via multiple drive letters that are mapped to two NetApp filers and a Windows server, and engineering users are accessing files on three servers and one filer.
There are several issues with Stephens Company's current file system environment:
* Users find it difficult to locate and access files via multiple drive letters (which are increasing).
* File server Houl_W2K_Server12 is at 90 percent capacity, while NY_NAS_Server2 is at 20 percent, which means that users are beginning to get errors as they try to save large graphic files to Server12.
* To migrate files and rebalance storage between Houl_W2K_Serverl2 tY_NAS_Server2, the administrator must disable user access to the files that are to be moved, move the files to the NY filer, reboot and bring both devices back online, revise all marketing and engineering user login scripts, and inform users that the files have a new location so that their PCs can be reconfigured to access them. This will require at least 12 hours of downtime and the manual reconfiguration of every desktop and application that accesses the files.
The Solution: Global Namespace
There is a simple, long-term solution to Stephens Company's data management and data movement issues. Deploying a global namespace will simplify data management and enable transparent data movement.
Figure 2 shows the new configuration, in which a global namespace has been inserted between users and physical storage. Users now access their files through shares called \\namespace\users\marketing and \\namespace\users\engineering. This was a non-disruptive installation, as the namespace was installed on top of the existing infrastructure. Users continue to access files in the same manner as before, with no retraining needed.
Note how the file system environment is changed by the introduction of a global namespace:
* All users see a single, logical view of files through the namespace.
* Users access all their files through a single drive letter--which will not grow, and allows them to continue accessing files in a familiar way.
* Data can be organized and presented to users in a way that makes sense to them, irrespective of how or where the data is stored.
* Data management and data movement are performed "behind the veil" of the namespace.
* Data changes are automatically updated in the namespace, and require no client reconfiguration.
* Administrators can expand, move, rebalance, and reconfigure storage without affecting how users view and access it.
* Data management and data movement require far less physical administration and are performed in less time than before.
Having a global namespace in place makes it easy for IT managers to accommodate the changing needs of an organization while also reducing storage costs.
Companies are looking for better ways to scale and manage their file systems. Global namespace provides the answer.
In "Global Namespace--The Future of File System Management, Part 1," we defined global namespace as a logical layer that sits between clients and file systems for purposes of aggregating multiple, heterogeneous file systems, and presenting file information to users and applications in a single, logical view. The benefits of a global namespace are clear and compelling:
* Users (and applications) are shielded from physical storage complexities. Administrators can add, move, rebalance, and reconfigure physical storage without affecting how users view and access it.
* Global namespace provides a platform for developing value-added functions such as data migration, server consolidation, and disaster recovery.
With a global namespace in place, the administrator can perform data management and data movement tasks in less time, without disrupting user access to files. When files are moved, links in the namespace are automatically updated, which reduces manual administration and ensures continuous client access to data.
In this article, we will discuss how a global namespace simplifies file management, how to create and deploy a namespace, and the solutions it enables in an enterprise environment.
The Problem: File (Data)
Management and File (Data)
Movement
Stephens Company has 600 marketing and engineering users who are accessing files across five file servers that are shared by the two departments located in Houston and New York City. Marketing users are accessing files via multiple drive letters that are mapped to two NetApp filers and a Windows server, and engineering users are accessing files on three servers and one filer.
There are several issues with Stephens Company's current file system environment:
* Users find it difficult to locate and access files via multiple drive letters (which are increasing).
* File server Houl_W2K_Server12 is at 90 percent capacity, while NY_NAS_Server2 is at 20 percent, which means that users are beginning to get errors as they try to save large graphic files to Server12.
* To migrate files and rebalance storage between Houl_W2K_Serverl2 tY_NAS_Server2, the administrator must disable user access to the files that are to be moved, move the files to the NY filer, reboot and bring both devices back online, revise all marketing and engineering user login scripts, and inform users that the files have a new location so that their PCs can be reconfigured to access them. This will require at least 12 hours of downtime and the manual reconfiguration of every desktop and application that accesses the files.
The Solution: Global Namespace
There is a simple, long-term solution to Stephens Company's data management and data movement issues. Deploying a global namespace will simplify data management and enable transparent data movement.
Figure 2 shows the new configuration, in which a global namespace has been inserted between users and physical storage. Users now access their files through shares called \\namespace\users\marketing and \\namespace\users\engineering. This was a non-disruptive installation, as the namespace was installed on top of the existing infrastructure. Users continue to access files in the same manner as before, with no retraining needed.
Note how the file system environment is changed by the introduction of a global namespace:
* All users see a single, logical view of files through the namespace.
* Users access all their files through a single drive letter--which will not grow, and allows them to continue accessing files in a familiar way.
* Data can be organized and presented to users in a way that makes sense to them, irrespective of how or where the data is stored.
* Data management and data movement are performed "behind the veil" of the namespace.
* Data changes are automatically updated in the namespace, and require no client reconfiguration.
* Administrators can expand, move, rebalance, and reconfigure storage without affecting how users view and access it.
* Data management and data movement require far less physical administration and are performed in less time than before.
Having a global namespace in place makes it easy for IT managers to accommodate the changing needs of an organization while also reducing storage costs.
Bluetooth is coming - wireless networking protocol - Brief Article
The wireless technology known as Bluetooth has been greeted with huge enthusiasm throughout the computer and communications industries, and soon, consumers can expect to enjoy the convenience, speed, and security of instant wireless connections.
Bluetooth wireless technology has become a global specification for "always on" wireless communication between portable devices and desktops. Simply put, it's a way for devices such as PCs, handhelds, and cell phones, to "talk" to each other and synchronize data--all without wires. As more companies begin to create Bluetooth-enabled devices, look for the technology to explode by year's end. The first set of Bluetooth-enabled devices will ship midyear.
"To meet these expectations, Bluetooth is expected to be embedded in hundreds of millions of mobile phones, PCs, laptops, and a whole range of other electronic devices in the next few years," explains Nathan Muller, author of the new book, Bluetooth Demystified (McGraw-Hill; $49.95). Bluetooth has a range of up to 30 feet, giving users greater mobility in the workspace. Unlike infrared connections, users don't have to have a line-of-sight connection to the device being accessed. Plus, without cables, the work environment looks and feels more comfortable.
Bluetooth can also be used to make wireless data connections to conventional local area networks (LANs) through an access point equipped with a Bluetooth radio transceiver that is wired to the LAN. For example, you can reply to an e-mail on your PDA, tell the device to make an Internet connection through a mobile phone, print a copy of the e-mail on a printer nearby, and record the original on the desktop PC--all while walking down the hall.
Since its development in 1994 by Ericsson, more than 1,800 companies worldwide, including Motorola, have signed on as members of the Bluetooth Special Interest Group (SIG) to build products with the wireless specification and promote the new technology in the market.
But with any new technology, there's a downside. And this one is no different. With Bluetooth, you can synchronize all of your devices only as long as they are within that 30-foot range. Beyond that, you're out of luck. And if you want to synchronize data with others, for example, you want to share your contact list with a colleague; setting up Bluetooth to do this can be a tedious and involved process. In this case, infrared might be a better option.
Bluetooth wireless technology has become a global specification for "always on" wireless communication between portable devices and desktops. Simply put, it's a way for devices such as PCs, handhelds, and cell phones, to "talk" to each other and synchronize data--all without wires. As more companies begin to create Bluetooth-enabled devices, look for the technology to explode by year's end. The first set of Bluetooth-enabled devices will ship midyear.
"To meet these expectations, Bluetooth is expected to be embedded in hundreds of millions of mobile phones, PCs, laptops, and a whole range of other electronic devices in the next few years," explains Nathan Muller, author of the new book, Bluetooth Demystified (McGraw-Hill; $49.95). Bluetooth has a range of up to 30 feet, giving users greater mobility in the workspace. Unlike infrared connections, users don't have to have a line-of-sight connection to the device being accessed. Plus, without cables, the work environment looks and feels more comfortable.
Bluetooth can also be used to make wireless data connections to conventional local area networks (LANs) through an access point equipped with a Bluetooth radio transceiver that is wired to the LAN. For example, you can reply to an e-mail on your PDA, tell the device to make an Internet connection through a mobile phone, print a copy of the e-mail on a printer nearby, and record the original on the desktop PC--all while walking down the hall.
Since its development in 1994 by Ericsson, more than 1,800 companies worldwide, including Motorola, have signed on as members of the Bluetooth Special Interest Group (SIG) to build products with the wireless specification and promote the new technology in the market.
But with any new technology, there's a downside. And this one is no different. With Bluetooth, you can synchronize all of your devices only as long as they are within that 30-foot range. Beyond that, you're out of luck. And if you want to synchronize data with others, for example, you want to share your contact list with a colleague; setting up Bluetooth to do this can be a tedious and involved process. In this case, infrared might be a better option.
Thursday, December 21, 2006
SCADA networking - Wireless products - Brief Article
The Pathfinder Lx wireless internetworking controller is a next-generation networking tool for building reliable remote industrial and utility SCADA Ethernet and TCP/IP-based wide-area wireless networks. The controller integrates all the capabilities and features to support the most popular licensed (VHF, UHF, MAS) and unlicensed wireless transceivers. An integrated SCADA-device gateway supports all network-ready Ethernet RTU/PLC or I/O devices. Configuration tools make building, commissioning and maintaining mission-critical, fault-tolerant infrastructure networks quick and simple. The unit's built-in networking engine supports the building of peer-to-peer, point-to-point, multipoint and mesh topologies, including wireless relays and hubs.--Metric System
Cisco Press
Three weighty technical new Cisco guides provide overviews and solutions for systems managers and administrators. Stefan Raab and Madhavi W. Chandra's MOBILE IP TCHNOLOGY AND APPLICATIONS: REAL-WORLD SOLUTIONS FOR MOBILE IP CONFIGURATION AND MANAGEMENT (158705132X) tells how the internet and wireless communications are changing how people access information. The challenge is effectively moving data across different networks, and Mobile IP is reviewed as one solution to this problem, standardizing operations and addressing its practical applications. Lay readers will be able to access this and even more so, Jim Doherty and Neil Anderson'' HOME NETWORKING SIMPLIFIED: AN ILLUSTRATED HOME NETWORKING HANDBOOK FOR THE EVERYDAY USER (1587201364, $24.99), which explains how anyone can build a home networking system. From networking computers and securing them against hackers and viruses to going wireless and understanding the latest home networking options, HOME NETWORKING SIMPIFIED is written in simple enough language that all ages can easily understand how to get the most of the computer system. Technical network managers involved in IP communications systems will want to keep Danelle Au, et.al.'s CISCO IP COMMUNICATIONS EXPRESS: CALLMANAGER EXPRESS WITH CISCO UNITY EXPRESS (158705180X, $70.00) close at hand. Not for the amateur, CISCO IP COMMUNICATIONS EXPRESS packs in detailed technical information not available in other resources, showing how to use product features more effectively, providing solid examples from real life to help in the configuration of the program, and aiding in common troubleshooting problems. Any taking the CCIE Security written exam will want to use Henry Benjamin, CCIE's CCIE SECURITY EXAM CERTIFICATION GUIDE, SECOND EDITION (1587201356, $79.95) as their basic guide. CCIE as an important security certification--and is one of the most highly valued networking certifications one could obtain. Here's an in-depth, detailed study tool for the 2.0 exam version, which has been updated and reviewed b past and present members of the CCIE Security team at Cisco
Wednesday, December 20, 2006
Networking machine tools pays dividends
Abbassian: Shop-floor networking, or DNC software, establishes a gateway from the numerous CNCs, PLCs, touch probes, gages, bar code readers, and other shop-floor devices to the corporate network. The benefits to the shop floor are nearly identical to office PCs. Today, we take for granted that every PC in a business will be part of a corporate network. Even at home multiple PCs are networked together. The benefits either at the office or home include file sharing, printer sharing, Internet access, email, and database access. It's no different on the shop floor. What is different is that Ethernet, the hardware connection that is universal in the office and at home, has only recently entered the shop floor. The bulk of the existing CNCs, PLCs and other shop-floor devices have RS-232 ports, not Ethernet ports. This simple fact drives the need for shop-floor networking and communications software that understands RS-232 and Ethernet-based communications. Once the shop-floor network is in place, several manufacturing-specific benefits are available including file sharing, printer sharing, e-mail access, and database access. With file sharing, machinists can push a few buttons on their CNCs and remotely request the appropriate CNC programs, fixture offsets, and tool offsets from a file server. Edits to CNC programs can be easily saved back to the file server again by the machinist, and touch probe data can be automatically collected stored on the file server. All of these benefits and more can only be accomplished after successfully implementing a modern shop-floor networking and communications system.Abbassian: With one customer, we are tracking and monitoring every rivet on airplane exteriors. This process has specific challenges because the average cycle time is only three seconds. With another customer, we're tracking and monitoring the torque and number of revolutions for every nut and bolt used while assembling a turbocharger. This data is recorded per serial number for every turbocharger made. By monitoring every serial number during the production process, in process confirmation back to the traveler database ensures that every turbo is assembled correctly because every operation is tracked. Should errors occur, the assembly line is automatically halted and notification of the problem and resolution is given to shop-floor personnet in real-time. Online access over the Internet allows engineering staff in the US to monitor production in Mexico in real-time.
ME: Some shop-floor automation packages, like Predator's, include tool crib management. How critical is tool crib management for shops today?
Abbassian: For most shops, tooling cost is an unmanaged cost. Most shops have inventory control problems and tool management problems for the following reasons: re-using existing tooling is not done often enough because nobody knows the status and location of every tool, cutter, and insert, so new tooling is ordered; standardized tooling and kitting is not used in enough situations; multiple personnel with authority to purchase tooling; and tool consumption can vary by machine, part, and machinist. Problems also occur when production stops because of lack of tooling, excessive shipping, and premium prices are paid for tooling; best practices with tooling and materials and parts are not recorded or referenced; tool rework and repair is not recorded or referenced; physical tool inventories are often not performed. All of these problems are solved by successfully implementing a modern tool crib management system.
ME: How has the Internet changed the process of data collection for manufacturing?
Abbassian: The Internet allows manufacturers access to real-time production status, reports, and charts from any PC. For example, small shops can monitor their machines from home. Medium-sized manufacturers with engineering in one location can monitor manufacturing in a second location. Large manufacturers with multiple plants around the world can monitor overall production, or drill-down to a plant, a department, a cell, or even a machine, as necessary. Combining manufacturing data collection (MDC) with the Internet enables progressive companies to leverage the trends in outsourced manufacturing, industry consolidation, just-in-time, and lean manufacturing to the next logical level. MDC builds a knowledge base of your actual manufacturing capabilities. With the Internet, this production knowledge base is available anywhere in real-time.
ME: Some shop-floor automation packages, like Predator's, include tool crib management. How critical is tool crib management for shops today?
Abbassian: For most shops, tooling cost is an unmanaged cost. Most shops have inventory control problems and tool management problems for the following reasons: re-using existing tooling is not done often enough because nobody knows the status and location of every tool, cutter, and insert, so new tooling is ordered; standardized tooling and kitting is not used in enough situations; multiple personnel with authority to purchase tooling; and tool consumption can vary by machine, part, and machinist. Problems also occur when production stops because of lack of tooling, excessive shipping, and premium prices are paid for tooling; best practices with tooling and materials and parts are not recorded or referenced; tool rework and repair is not recorded or referenced; physical tool inventories are often not performed. All of these problems are solved by successfully implementing a modern tool crib management system.
ME: How has the Internet changed the process of data collection for manufacturing?
Abbassian: The Internet allows manufacturers access to real-time production status, reports, and charts from any PC. For example, small shops can monitor their machines from home. Medium-sized manufacturers with engineering in one location can monitor manufacturing in a second location. Large manufacturers with multiple plants around the world can monitor overall production, or drill-down to a plant, a department, a cell, or even a machine, as necessary. Combining manufacturing data collection (MDC) with the Internet enables progressive companies to leverage the trends in outsourced manufacturing, industry consolidation, just-in-time, and lean manufacturing to the next logical level. MDC builds a knowledge base of your actual manufacturing capabilities. With the Internet, this production knowledge base is available anywhere in real-time.
Networking Infrastructure Glossary
DES, 3DES (Data Encryption Standard, Triple DES) A standard method of encrypting and decrypting data. A DES key has a 64-bit value; 8 bits are used to check parity, 56 bits for the encryption algorithm. Triple DES uses three 56-bit keys, for a total of 168 bits.
Diffie-Hellman A public-key cryptography protocol, first published in the 1970s. It allows two parties to establish a shared secret over an insecure communications channel and is used within IKE to establish session keys.
ESP (Encapsulating Security Payload) An encryption and validation standard used with IPsec.
IKE (Internet Key Exchange) An automatic security negotiation and key management service, used with the IPsec protocols.
IPsec (IP Security) A widely used collection of security protocols developed and supported by the IETF (Internet Engineering Task Force), which allows for private and secure communications across the public Internet. Over 40 RFCs (requests for comments) specify authentication, encryption, and key management in IPsec.
L2TP (Layer 2 Tunneling Protocol) A merging of features from PPTP and Cisco's L2F. It is used to encapsulate PPP frames and transmit them across a TCP/IP network. As an IETF standard, L2TP is supported by many VPN providersMPLS (MultiProtocol Label Switching) An IETF–defined protocol that is used in IP traffic management. Basically, it provides a means for one router to pass on its routing priorities to another router by means of a label and without having to examine the packet and its header, thus saving the time required for the latter device to look up the address for the next node. It can also facilitate Quality of Service (QoS).
PPP (Point-to-Point Protocol) A TCP/IP-based protocol used to transmit IP packets over serial point-to-point links.
PPTP (Point-to-Point Tunneling Protocol) A tunneling protocol developed by Ascend Communications, ECI Telecom, Microsoft, and U.S. Robotics that encapsulates PPP frames over TCP/IP networks. There is no standard implementation of PPTP.
RADIUS (Remote Authentication Dial-In User Service) A client/server protocol and software package that enables remote-access servers (VPN concentrators in this case) to communicate with a central server to authenticate dial-in users and authorize their access to the requested systems or services.
RSA The public-key cryptographic system developed in 1977 by Ron Rivest, Adi Shamir, and Leonard Adleman. RSA is the most commonly used public-key encryption and authentication algorithm.
TACACS (Terminal Access Controller Access Control System) A protocol for authenticating users attempting to gain access to servers, networks, and remote-access servers. Similar to but less secure than RADIUS and TACACS+
Tuesday, December 19, 2006
Cisco Systems Announces Winners of its 6th Annual Growing with Technology Awards 2005; Distinguished Group of SMBs, Non-Profit and Public Sector Organ
SAN JOSE, Calif. -- A California robotics company, an Illinois school district, and a Georgia legal services organization are among this year's winners of the Cisco Growing with Technology Awards. Cisco Systems(R) today announced the winners of its annual awards program, which recognizes small- and medium-sized businesses (SMBs) and non-profit and public sector organizations for their unique adoption of networking solutions to drive business success.
One grand-prize winner and two runners-up in each of five categories were selected from more than 600 applications received by Cisco for this year's contest. Representatives from Cisco worked with a diverse panel of industry experts to narrow the broad field of entrants and select the 15 winning companies.
"The Cisco Growing with Technology Awards shines a spotlight on innovative companies and organizations who have improved their operations through their investment in information and networking technology," said Mark Quinn, Northern California District Director, U.S. Small Business Administration, and one of the contest's judges. "All winners clearly demonstrated that technology really does deliver added value and greater returns, and that it is critical to every part of their business." The winners in each of the five categories of the Cisco Growing with Technology Awards 2005 include:
Innovators in Customer Relationship
--Grand Prize: Elliance (21 employees), based in Pittsburgh, Pa.
--Runners-up: A2Z Computer Service and Repair (4 employees), based in Durham, N.C.; and Walker Information (250 employees), based in Indianapolis, Ind.
Innovators in Non-Profit
--Grand Prize: Georgia Legal Services Program (165 employees), based in Atlanta, Ga.
--Runners-up: National Center for Missing and Exploited Children (320 employees), based in Alexandria, Va.; and Scheurer Healthcare Network Organization (385 employees), based in Pigeon, Mich.
One grand-prize winner and two runners-up in each of five categories were selected from more than 600 applications received by Cisco for this year's contest. Representatives from Cisco worked with a diverse panel of industry experts to narrow the broad field of entrants and select the 15 winning companies.
"The Cisco Growing with Technology Awards shines a spotlight on innovative companies and organizations who have improved their operations through their investment in information and networking technology," said Mark Quinn, Northern California District Director, U.S. Small Business Administration, and one of the contest's judges. "All winners clearly demonstrated that technology really does deliver added value and greater returns, and that it is critical to every part of their business." The winners in each of the five categories of the Cisco Growing with Technology Awards 2005 include:
Innovators in Customer Relationship
--Grand Prize: Elliance (21 employees), based in Pittsburgh, Pa.
--Runners-up: A2Z Computer Service and Repair (4 employees), based in Durham, N.C.; and Walker Information (250 employees), based in Indianapolis, Ind.
Innovators in Non-Profit
--Grand Prize: Georgia Legal Services Program (165 employees), based in Atlanta, Ga.
--Runners-up: National Center for Missing and Exploited Children (320 employees), based in Alexandria, Va.; and Scheurer Healthcare Network Organization (385 employees), based in Pigeon, Mich.
Taking Networking to the Bottom Line
Storage area networking also took a share of the CeBIT spotlight, as vendors sought to encourage new uses of the traditionally static networking medium. Cisco Systems Inc., of San Jose, Calif., rolled out product enhancements to enable enterprises to use storage area networks more efficiently.
Meanwhile, adding an element of flexibility to the health care industry's storage usage, IBM and Siemens AG's Medical Solutions division, in Munich, Germany, unveiled a storage-on-demand service tailored to hospitals and clinics. The notion behind IBM's e-business-on-demand effort is to allow enterprises to buy IT the way they buy electricity—paying only for what they use.
An increase in the use of MRIs, X-rays and other high- resolution digital imaging has produced expanding medical files that must be stored for long periods of time. The growing volume of data requires a high storage capacity, but hospitals cannot always afford the initial investment for it. With storage on demand, hospitals and clinics pay only for the storage they use.
With a similar philosophy, Hewlett-Packard Co. updated its automated metering technology that measures the processing power used by a CPU or server. The "pay per use" service allows an enterprise to pay only for actual usage on a monthly basis, and the usage data is automatically collected, encrypted and sent to the Palo Alto, Calif., company for billing.
HP's latest metering technology reads the use of each CPU, which can help an enterprise better respond to changes in power demand. Like IBM, HP is developing a series of on-demand offerings to save enterprises from paying for resources they do not need.
Data traffic management companies also displayed a range of updated tools to enable more efficient traffic usage and reduce networking costs. Extreme Networks Inc., also of Santa Clara, incorporated new features into its traffic management service for enterprise campus networks. The features allow advanced rate shaping so that a network manager can set bandwidth thresholds to better control incoming and outgoing traffic
Monday, December 18, 2006
UK carrier Kingston Communications now deploying infrastructure with FSP 2000 from ADVA Optical Networking - International - Brief Article
ADVA Optical Networking announced that UK carrier Kingston Communications has expanded deployments from AD VA's Fiber Service Platform (FSP) 500 systems to now include the FSP 2000.
Kingston has deployed more than one hundred FSP 500 systems since 1999 through the continued expansion of its national telecommunications network in the United Kingdom. The carrier found its niche in the market by targeting small- to medium-sized enterprises with ADVA's FSP 500 for inexpensive managed services. Initial deployments of 10/100 Ethernet connections evolved into Gigabit Ethernet and now STM-4 services. Kingston has established to-date twenty-five metro regional fiber networks and its own long distance fiber network with DWDM technology.
ADVA's FSP 2000 is currently being deployed at specific points in Kingston's network infrastructure to relieve fiber exhaustion and address mismatched fiber problems. ADVA's FSP 2000 employs parallel use of Coarse/Dense Wavelength Division Multiplexing (C/DWDM) and TDM technology and enables up to 512 applications to be transported over one single fiber pair up to 200 kilometers. Its robust character and ability to transport all protocols between 8Mbit/s and l0Gbit/s make the FSP 2000 an ideal solution particularly for large-scale, high-bandwidth storage networks. ADVA's FSP 500 is a managed fiber access and CWDM solution specifically designed as a very cost-effective system for delivering high-speed data, storage, and voice applications. It supports service speeds ranging from 2Mbit/s to 2.5Gbit/s over distances of up to 70 kilometers on singlemode fiber.
Failure is not an option: what's designed to be more robust than the electronics on the Space Shuttle? The control systems that manage engine performa
Failure is not an option." The declaration by legendary NASA Flight Director Gene Kranz during the Apollo 13 mission in 1970 has special meaning for locomotive OEMs and aftermarket suppliers whose goal is to produce microprocessor-based control platforms that can deliver very high levels of reliability and availability.
Want to test the ability of an industrial-grade microprocessor to withstand temperature and vibration extremes? If your first thought would be to send it into orbit aboard the Space Shuttle, think again. You'd probably be better off incorporating it into Electro-Motive Division's FIRE (Functionally Integrated Railroad Electronics), GE Transportation Systems' CCA (Consolidated Control Architecture), or Wabtec Railway Electronics' ETMS (Electronic Train Management) systems.
These and numerous other types of locomotive and engine control systems from such suppliers as EMD, GETS, Wabtec, ZTR Control Systems, and Kim Hotstart are changing the way locomotives are operated, maintained, and repaired. Such technologies control everything from electronic fuel injection tinning, a.c. traction current, wheelslip control, and engine cooling to LCD cab displays and onboard health monitoring and diagnostics. Regular maintenance cycles of 180 days? Prime-movers that emit significantly less NOx and particulate matter? Locomotives that produce dispatch adhesion factors 25'% greater than older models and are available better than 90% of the time? It's mostly in the electronics "The Space Shuttle is behind in architecture compared to what we're doing here," says GETS Evolution Series Project Manager Pete Lawson. By this, he's referring to the CCA's dual-redundant, ARCNET-based (an industry standard) onboard network. It uses three 233-MHz Pentium III microprocessors running a UNIX-based operating system. The processors, which he says are "very rugged," can withstand temperatures ranging from -40 degrees C to +55 degrees C, such as those encountered in extreme cold climates and long tunnels where heat tends to get trapped. Pentium IVs running at 1 GHz are not yet available for heavy industrial applications, but when they are developed, "we'll be able to offer more functionality and efficiency," says Lawson. CCA memory is stored in flash cards--"no more hard drive."
For external communications, the CCA is able to interface through a variety of networking methods--RS232, Ethernet, etc.--for talking with end-of-train devices, train control, distributed power, event recorders, GPS, and other devices.
Communications are hilly integrated through a system called LOCOCOMM[R] CMU (communications management unit) that serves as the basis for GETS's information-based services. It can host many GETS or third-party applications on its industry-standard "Wintel" platform, interfacing in real time with locomotive control and trainline systems. It's capable of processing such data as location, fuel level, and health information for wireless transmissions. A multi-mode antenna package can transmit data through a wide variety of communications systems. The remote services include Expert-on-Alert[TM], PinPoint[TM], LocoCAM[TM], and Smart Fueling[TM].
"The network is where different functions connect, and for real-time capability, data must arrive at the right time and react to operating changes at the right time," says Lawson. "Point-to-point type connections won't cut it."
Want to test the ability of an industrial-grade microprocessor to withstand temperature and vibration extremes? If your first thought would be to send it into orbit aboard the Space Shuttle, think again. You'd probably be better off incorporating it into Electro-Motive Division's FIRE (Functionally Integrated Railroad Electronics), GE Transportation Systems' CCA (Consolidated Control Architecture), or Wabtec Railway Electronics' ETMS (Electronic Train Management) systems.
These and numerous other types of locomotive and engine control systems from such suppliers as EMD, GETS, Wabtec, ZTR Control Systems, and Kim Hotstart are changing the way locomotives are operated, maintained, and repaired. Such technologies control everything from electronic fuel injection tinning, a.c. traction current, wheelslip control, and engine cooling to LCD cab displays and onboard health monitoring and diagnostics. Regular maintenance cycles of 180 days? Prime-movers that emit significantly less NOx and particulate matter? Locomotives that produce dispatch adhesion factors 25'% greater than older models and are available better than 90% of the time? It's mostly in the electronics "The Space Shuttle is behind in architecture compared to what we're doing here," says GETS Evolution Series Project Manager Pete Lawson. By this, he's referring to the CCA's dual-redundant, ARCNET-based (an industry standard) onboard network. It uses three 233-MHz Pentium III microprocessors running a UNIX-based operating system. The processors, which he says are "very rugged," can withstand temperatures ranging from -40 degrees C to +55 degrees C, such as those encountered in extreme cold climates and long tunnels where heat tends to get trapped. Pentium IVs running at 1 GHz are not yet available for heavy industrial applications, but when they are developed, "we'll be able to offer more functionality and efficiency," says Lawson. CCA memory is stored in flash cards--"no more hard drive."
For external communications, the CCA is able to interface through a variety of networking methods--RS232, Ethernet, etc.--for talking with end-of-train devices, train control, distributed power, event recorders, GPS, and other devices.
Communications are hilly integrated through a system called LOCOCOMM[R] CMU (communications management unit) that serves as the basis for GETS's information-based services. It can host many GETS or third-party applications on its industry-standard "Wintel" platform, interfacing in real time with locomotive control and trainline systems. It's capable of processing such data as location, fuel level, and health information for wireless transmissions. A multi-mode antenna package can transmit data through a wide variety of communications systems. The remote services include Expert-on-Alert[TM], PinPoint[TM], LocoCAM[TM], and Smart Fueling[TM].
"The network is where different functions connect, and for real-time capability, data must arrive at the right time and react to operating changes at the right time," says Lawson. "Point-to-point type connections won't cut it."
Sunday, December 17, 2006
Conexant Cashes In On Networking Chips
Home networking has drawn a hive's worth of buzz over the past few years, and vendors are gearing up to meet the inevitable consumer demand. Count Conexant Systems among them.
Last week, the Newport Beach, Calif.-based semiconductor firm launched a line of home networking processors designed to power next-generation broadband gateways and wide area networks access applications. Although the CX8611x family supports both wireless and wired network configurations, Conexant product marketing engineer Gilad Aloni said he expects consumers to favor a wireless approach.
"We're seeing greater demand on the wireless end," Aloni said. "To that end, we engineered the CX8611x line so that it's compatible with any of the various 802.11 a, b and g chipsets out there.Although Conexant did not divulge the names of gateway manufacturers that have signed on for the new line of chips, earlier versions of its silicon can be found in products from Linksys, Netgear, D-Link Belkin and Efficient Networks.
On the MSO side, Time Warner Cable has been one of the first ops to dip a toe into the home networking stream. Last year TWC kicked off a series of trials in five markets, including Los Angeles, Orlando, Fla., and Albany, N.Y. Customer satisfaction was reportedly "very high.Inspection System checks thermal seal quality
Utilizing infrared thermal imaging technologies, Maxline 2 inspects seals and generates control outputs with no negative effect on production time or speed. Inspection tool specifically monitors thermal seal signatures and generates pass/fail results with diagnostic codes. With image de-burring feature, system can inspect continuous motion items at up to 700/min, and for indexing applications without de-burring feature, it can perform up to 300 inspections/min.
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Ircon is pleased to introduce an innovative new solution designed to rapidly and automatically inspect thermal seal quality within production processes.
The Maxline 2 Thermal Seal Checking System applies infrared thermal imaging technologies in a unique and innovative way - instantly inspecting seals and generating control outputs with no negative effect to production time or speed.
The solution provides a flexible, in-process, non-destructive means for inspecting every seal in a production process, even if rapid and continuous. It provides an inspection tool that specifically monitors thermal seal signatures and generates "pass/fail" results with diagnostic codesHot Seal Defects -- that may result from contaminants in the sealing area or overheated or unevenly-heated seal bars or heaters. This may lead to seal weakness or failure due to seal bubbling or roll-off.
Cold Seal Defects -- that may result from under-heated seal bars or heaters. This may lead to seal weakness or failure due to weak spots, gaps or voids.
Seal Voids and Creases -- that may result due to defects in seal bar or heater areas, or misallignment of sealing equipment or materials.
As sealing errors are detected, the software can alert you to the type of error that is occurring, and can be programmed to automatically relay control signals to your process system(s) and equipment. Built-in TCP/IP networking capabilities also enables remote access -- to the system and the data it generates -- for those that need it.
Set-up of inspection parameters is highly flexible, designed for tailoring to a variety of production requirements, and settings can be saved and re-set for different production runs. The system also collects and stores data about every item inspected, for traceability and reporting purposes.
An advanced, rugged infrared sensing camera is included, designed to provide many years of reliable service placed in hostile production environments.
Targeted primarily to food, drug and medical equipment manufacturers, this system provides a quality control and process validation solution meant to increase inspection speed and coverage while lowering inspection costs and product recall risks.
Additional information on the Ircon Maxline 2 Thermal Seal Checking System can be found by registering on our web site a/sealcheck.
To discuss this system in further detail, and arrange a possible live demonstration of the system within your operations, please contact an Ircon representative or distributor near you.
Ircon specializes in the design, manufacture and marketing of a wide range of industrial, non-contact, temperature measuring solutions.
Products include infrared thermometers, line scanning systems, thermal imaging cameras and software, and related accessories.
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