Previous Blogs

December 10, 2019
Amazon’s Graviton2 CPU Highlights Arm Presence in Cloud Compute

December 3, 2019
AT&T and Microsoft Partnership on Network Edge Compute Highlights Future of Cloud and 5G

November 26, 2019
Google Brings More Intelligence to G Suite

November 19, 2019
HPE Debuts Container Platform

November 12, 2019
Dell Technologies Brings Cloud Business Models “on Prem”

November 5, 2019
Microsoft Cortana Pivot Highlights Evolving Role of Voice-Based Computing

October 29, 2019
Samsung Embraces Intel Project Athena Vision

October 22, 2019
Nvidia EGX Brings GPU Powered AI and 5G to the Edge

October 15, 2019
Poly Extends Collaboration Options

October 8, 2019
Arm Extends Reach in IoT

October 1, 2019
A 5G Status Report

September 24, 2019
Revised Galaxy Fold Adds New Twist to Fall Phone-a-Palooza

September 3, 2019
Huddle Rooms and Videoconferencing Reshaping Modern Work Environments

August 27, 2019
VMware Paints Multi-Faceted Picture of Computing Future

August 20, 2019
Server Chips Now Leading Semiconductor Innovations

August 13, 2019
Samsung and Microsoft Partnership Highlights Blended Device World

August 6, 2019
IBM Leveraging Red Hat for Hybrid Multi Cloud Strategy

July 30, 2019
T-Mobile, Sprint and Dish: It’s All about 5G

July 23, 2019
The Contradictory State of AI

July 16, 2019
Changes to Arm Licensing Model Add Flexibility for IoT

July 9, 2019
Intel Highlights Chiplet Advances

July 2, 2019
Ray Tracing Momentum Builds with Nvidia Launch

June 25, 2019
AT&T Shape Event Highlights 5G Promise and Perils

June 18, 2019
HPE and Google Cloud Expand Hybrid Options

June 11, 2019
AMD's Gamble Now Paying Off

June 4, 2019
Apple Blurs Lines Across Devices

May 21, 2019
Citrix Advances the Intelligent Workspace

May 14, 2019
Next Major Step in AI: On-Device Google Assistant

May 7, 2019
Microsoft Bot Frameworks Enable Custom Voice Assistants

May 1, 2019
Dell Technologies Pushes Toward Hybrid Cloud

April 23, 2019
Intel and Nvidia Partner to Drive Mobile PC Gaming

April 16, 2019
Samsung Galaxy Fold Unfolds the Future

April 9, 2019
Google Embraces Multi-Cloud Strategy with Anthos

April 8, 2019
Intel Helps Drive Data Center Advancements

April 2, 2019
Gaming Content Ecosystem Drives More Usage

March 26, 2019
PCs and Smartphones Duke it Out for Gaming Champion

March 19, 2019
PCs and Smartphones Duke it Out for Gaming Champion

March 12, 2019
Proposed Nvidia Purchase and CXL Standard Point to Data Center Evolution

March 5, 2019
Tech Standards Still Making Slow but Steady Progress with USB4 and WebAuthn

February 26, 2019
Second Gen HoloLens Provides Insights into Edge Computing Models

February 19, 2019
IBM’s Watson Anywhere Highlights Reality of a Multi-Cloud World

February 12, 2019
Extending Digital Personas Across Devices

February 5, 2019
Could Embedded 5G/LTE Kill WiFi?

January 29, 2019
Successful IT Projects More Dependent on Culture Than Technology

January 22, 2019
XR Gaming Market Remains Challenging

January 15, 2019
The Voice Assistant War: What If Nobody Wins?

January 8, 2019
Big CES Announcements are TVs and PCs

January 2, 2019
Top Tech Predictions for 2019

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TECHnalysis Research Blog

December 17, 2019
Cisco Builds Custom Silicon to Power Future Internet

By Bob O'Donnell

The future of just about everything tech-related right now, or so it seems, revolves around designing custom semiconductor chips. From smartphone makers like Apple and Samsung, to cloud computing providers like Amazon and Google, stretching even to automakers like Tesla, there’s been an enormous amount of effort among tech vendors recently to create their own specialized silicon parts.

The most recent example comes from networking powerhouse Cisco, which just unveiled a new silicon platform last week, called Silicon One, that they believe is necessary to power the next generation internet, as well as the infrastructure necessary to support 5G networks. Based on current growth rates and predicted demand, the amount of data traffic that each of these elements will demand (as well as the obvious tie-overs between them), will completely overwhelm the existing networking infrastructure. Plus, the economics of trying to scale these efforts with existing devices paints an even bleaker future—hence the need to take a radically different approach to networking gear.

To be completely accurate, Cisco has been designing and building networking-specific chips for over two decades. What’s different and significant about Silicon One is that, in addition to using it themselves, the company also plans to sell this chip to service providers and other potential partners who may want to build their own devices. That’s quite a change from a company that was never seen as a silicon supplier.

The other unique thing about the Silicon One platform is the design and functionality of the architecture. Cisco claims that they’ve been working on it for 5 years and started with a clean sheet of paper. When you look at what it’s designed to do, it’s easy to see why. Rather than pursuing enhancements to existing types of traditional routing and switching chips, they decided to create a more programmable structure that would allow a single chip family to perform a variety of different networking-related functions for different applications, including backhaul, core, edge and more. The goal was to achieve new levels of performance—over 10.8 terabits/sec—in a single rack space unit using the Q100 chip and to make the traditionally slower routing chips as fast as those that do switching.

Silicon One achieves this with an architecture that, at first glance, sounds somewhat like an FPGA (field-programmable gate array), which is a completely programmable set of circuits embedded into these chips that are often used in networking devices. Further conversations with Cisco representatives at their launch event in San Francisco last week clarified, however, that the Q100, which is the first specific iteration of the Silicon One family, isn’t an FPGA, but rather, a different type of ASIC (application-specific integrated circuit) design. The Silicon One family of chips (others are still to come) integrates multiple types of optimized networking functions within its design that can be turned on or off with a software API (application programming interface). This allows equipment builders to basically turn on and off various sets of functionalities as needed, depending on the specific tasks the device is intended to do.

So, for example, if either Cisco or one of its silicon customers wants to build a device that’s primarily dedicated to high-speed routing, they can enable those functions, whereas someone else building a piece of infrastructure equipment that needs more switching capabilities can turn those on—both with the same chip. According to Cisco, turning on or off certain functions doesn’t change the performance of the chip. The goal was simply to create a single silicon platform that could be more easily used and have software written for, across multiple different types of networking functions, thereby saving the capital costs involved in designing and testing multiple types of systems on multiple different chip architectures.

Speaking of software, the company also unveiled a new version of the operating system they use inside their devices called IOS XR7 (no, not that iOS) that’s been optimized to work with the new silicon. XR7 will work on the new line of 8000-series devices—the first to feature Silicon One-based chips—as well as previous generations going back to the NCS 540, 560, and 5600 lines. The new OS features a number of optimizations designed to allow it to scale to the size and speeds necessary for the next-generation network and to do so in a more automated way that large service and cloud providers, such as Microsoft, AT&T, Comcast and Facebook, need.

The final piece of the Cisco puzzle was the release of new silicon photonics-based advances—also built into the new 8000-series routers—that allow the company to reach the 400G speeds per port that are necessary to power the future Internet. Leveraging several acquisitions that the company made in this area over the last several years, notably Lightwire and Luxtera, Cisco announced important advances in the field that are allowing them to reduce the manufacturing costs for these components by integrating them into more traditional silicon manufacturing processes. Given that the optics costs can reach 75% of the total when scaling to 400G and higher, that’s a critical step. Plus, as with the Silicon One family of chips, Cisco has decided to sell its silicon optics components separately for potential partners who may be interested.

While it’s easy to write off something called the “Future of the Internet” as little more than hype, Cisco managed to present a compelling case as to what problems lay ahead with current networking infrastructure equipment, the need for a new approach, and the achievements they made to address those needs. As with most behind-the-scenes technologies, we may not see the capabilities that Silicon One will bring to both our future wired and wireless connections, but if it’s all done right, we should most definitely experience it.

Here's a link to the column: https://techpinions.com/cisco-builds-custom-silicon-to-power-future-internet/59174

Bob O’Donnell is the president and chief analyst of TECHnalysis Research, LLC a market research firm that provides strategic consulting and market research services to the technology industry and professional financial community. You can follow him on Twitter @bobodtech.

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