Xilinx Ill-Communication

, Semiconductors, Tech Investing — @ 10:54 pm

Xilinx recently put out a press release publicizing their partnership with Sun Microsystems. The frustrating part of the release is it accentuates Xilinx inability to articulate its platform strategy. An excerpt from EE Times (a pretty techy organization) coverage of the press release illustrates this.

Xilinx said in a statement. “The microprocessor industry is steadily shifting towards CMT architectures”… It is thought that Knudsen was referring to processors that support multiple threads of computation on a single chip as in chip-multi-threading (CMT) but the acronym was not expanded.

I have a fairly good mental library of acronyms, but “CMT” isn’t one I readily recognize. When technical publications struggle to decipher a company’s lingo it indicates the company has some work to do in the marketing department. Xilinx has a very enviable position that they are struggling to leverage or communicate.

The PLD (Programmable Logic Device) industry badly needs to create a “Web 2.0″ type marketing headline that can energize engineers, designers, managers, and venture capitalists. Otherwise PLDs may stagnate in their current niche with market adjacencies continuing to be dominated by ASSPs (Application Specific Standard Products). Potential alone isn’t a recipe for success. People need inspiration to change habits away from the traditional approach.

Google’s Browser, a Realistic Perspective

From the blogesphere to the traditional news media everyone seems ecstatic about Google’s new browser, Chrome. Some are even proclaiming that it will overtake Windows and be the next major operating system. When so many smart people fall over themselves to hype a product still in development I tend to try to view things from the other side. For the Chrome browser there are a lot of important questions that no one seems to be asking. Like what special capabilities is Google bringing to the crowded browser market?

Open Standards

Everyone is proclaiming how great this will be that we will have an open source browser. The thing is, there is already a great open source browser; Mozilla’s Firefox. It is debatable how much is gained from open sourcing the browser’s code. What is important is, how will this browser support open standards? Since so many websites were not initially implemented to fully support the W3C Standards (the international organization that defines the internet’s standards) will Chrome be able to correctly render 99% of websites, as claimed, while also fully supporting open standards?

Innovator’s Dilemma

Balancing support for innovation and new standards with support for legacy applications and standards is a monumental task that should not be taken lightly. Legacy support is what gives Microsoft Windows its monopoly, but it also acts as a yoke on innovation. Microsoft has a better operating system than Vista; they just cannot figure out how to roll it out.

Microsoft’s Internet Explorer is in a similar boat. It has been estimated that over 50% of IE’s code base is error handling and “seamless” handling of poorly written website code. This code was very useful in the late 1990s and early 2000s when nascent programmers were still figuring out how to write relatively static web applications. Now that web applications are much more dynamic this code bloat is a performance drag affecting many of the more complex Web 2.0 style applications.

In a classical example of an innovator’s dilemma Microsoft invented the key technology behind Web 2.0 applications, but IE is still a laggard due to the legacy yolk. A key factor of Firefox’s success, and its dramatically better performance, is they took the time to clean up their legacy code base. IE 8 is making steps towards better support for W3C Standards and better
performance while supporting a migration path for enterprises. In many respects following how Microsoft balances these objectives is more important than following Chrome’s progress. Although I imagine the press will instead follow Chrome’s progress.

Where is the Innovation

What new, innovative features does this Google browser have? So far it appears they have just implemented functionality currently in the existing browsers. As for new functionality like video we already have platforms like Flash and Silverlight that are pretty good and improving.

Mozilla’s recently released Firefox 3.0 has a much better optimized JavaScript engine and IE 8 will as well. So far Chrome’s JavaScript engine appears to only be 13% faster than Firefox 3.0. Users do not notice 13% improvements. When Chrome goes live it will probably also be competing with IE 8.0 and IE 8’s performance improvement.

Overtaking Microsoft

Internet Explorer (IE) is a relatively crappy browser that has easily over 50% market share. As some claim, this isn’t solely because most people can assume a user has IE. It is because many websites still work better in IE; and many, probably most, of these websites are inside firewalls. Applications built for only a few hundred users or less.

The key to overtaking Microsoft’s browser isn’t to build a cooler browser. Apple, Mozilla, and Opera have done that. The key to overtaking IE is to making a compelling ROI argument to enterprises to abandon IE for a different primary browser.

Enterprise Strategy

Unless Apple makes a big push into the enterprise or Red Hat consolidates the many Linux splinters Microsoft’s desktop dominance will probably last another decade; even with corporations not upgrading to Vista. On a side note it would be interesting if Apple purchased Sun, spun-off its hardware business (while it still has some value), and made a big push into the enterprise. Thin clients offer an alternative, but Windows and its partner Citrix are currently positioned relatively well. However, that is for another article. So for now browser makers are still playing in Microsoft’s playground.

For the majority of websites it is not cost effective to build and test the website in multiple browsers. Project teams focus on one or two core browsers and make a best effort for the others. This is especially true for corporations building websites only intended for a limited number of users. As a result many corporations choose the browser with

  • The largest market share.
  • The one they have built applications on for years.
  • The one they know how best to manage. For support reasons companies need to manage how and when core software upgrades are presented to users.

Active Directory

At any large or mid-size company any internal website can know who you are (and probably does) if you are using Internet Explorer because of its tight integration with Active Directory. This allows easy implementation for single sign-on across company or even inter-companies’ web applications. To gain critical enterprise adoption the existing browsers need better support for Active Directory and how to manage it.

Offensive or Defensive

Few people have mentioned that Chrome may actually be a defensive move by Google to protect their search engine turf. I regularly use iGoogle and Google Maps, but I haven’t actually gone to Google.com to perform a search in at least a year. I perform all my searching in the browser. Of course, I primarily use Google, but I find myself using other website’s like Wikipedia, Ask, and Dictionary.com more often; and my switching costs are basically nil. In fact, I’ve even started using Live Maps because of its far better international support (Live vs. Google).

Five years ago I remember wondering why someone would use a search engine other than Google because it was at least twice as good as competitors. While completely subjective I think Google is now only marginally better. I have a dozen search engines configured in my browsers and I’m always one click away from not using Google. Now I wonder why people are so reliant on Google. It is getting easier to use other search engines and Google is growing up and becoming a little
closer to being evil.

Laissez-Faire Mess

Google is well renowned for encouraging engineers to spend 20% of their time pursuing individual projects. This has created a great environment where ideas bubble up. However, some initiatives require top down strategy. Creating a browser platform serving a multi-sided market is such an initiative.

Fortune called Google’s management style a “laissez-faire mess“. The questionable strategy and rollout of the Google browser may validate that endorsement. In fact, one could go so far as to say that Google’s laissez-faire strategy resembles one of its competitor’s peanut butter strategy.

Google still has yet to prove that massive hiring into a laissez-faire environment can fuel innovation. In fact Apple, perhaps the most innovative company this decade, takes the opposite approach by keeping its core design teams small and focused. I am still questioning the special capabilities of Google’s Android and now we have Chrome. For comparison, I can critique specific features of the iPhone, such as the battery (which Apple will eventually fix like they did with the iPod), but the special capabilities of the iPhone are crystal clear to any observer.

Current Market State

As an advantage of losing Browser World War I Mozilla was able to free itself of its legacy code and become the performance leader; just as Web 2.0 applications began taking off. Microsoft finally seems motivated to accelerate many legacy applications migration path allowing it to offer better support for standards and increased performance. Although it is apparent that IE 8.0’s performance will still trail Firefox 3. Safari will be relegated to the smaller yet growing Apple user base with little enterprise support. Opera is a good browser that doesn’t offer a compelling enough reason to switch (sounds similar to Google’s Chrome).

Currently Firefox has a real chance to become the number one browser in Europe, but its market share (and growing importance) may be hurt by the splintering browser market due to Safari and now Chrome.

So What Has Changed

I’ll download Chrome and test it out, but I’m not excited to build a new website and have to test it in an additional browser. That is the problem that Google has to address. Not just for the hundreds of thousands of websites on the internet, but especially for the hundreds of thousands of web sites not on the internet (at least not without a username and password).

If Chrome was built by someone other than Google we probably wouldn’t be hearing about it. I am excited that one day enterprises will be building websites on a browser much better than IE 7, but that will take a vendor who understands enterprises and has a relevant platform strategy. I haven’t heard such a strategy from Google. For the near future it is most likely that vendor will be Microsoft and now less likely to be Mozilla. I imagine the IE and Firefox teams will wake up tomorrow looking over their shoulder at each other not Chrome.

Chrome’s biggest impact may be a weakening of Google’s support of Firefox. Google has been the biggest sponsor for Firefox. If this support (technical or financial) diminishes due to Chrome than the biggest beneficiary of Chrome may indeed by Microsoft. Let’s hope not. The browser market needs a strong number two to compel the market leader to innovate. However, the internet will not benefit from a splintered browser market requiring programmers to support numerous browsers. Like any platform market, the browser market will trend toward a monopoly or duopoly market. Let’s hope it’s a duopoly.

So What Is Next

Maybe Google will announce tight integration for Chrome with Android or some amazing new Semantic Web style feature. However, I’ll bet the next major disruptive innovation in this area will come from Apple or one of the new companies created by ex-Googlers.

Disclaimer: I own no stock in Google, Microsoft, or Apple.

The 3G iPhone has some Kinks to Resolve

, Tech Investing, Unified Communication, Wireless — @ 9:06 pm

As the Washington Post reports and many predicted the 3G iPhone has some major “phone” issues. As a small form factor computing device it is without peers. Unfortunately, Apple overlooked that the two most important features for any mobile phone are call quality and battery life.

Apple chose to save some money by choosing Infineon’s subpar baseband solution. They also didn’t learn from the many previously released 3G smart phones that have struggled due to disappointing battery life. For example, the Motorola Q had to basically double the size of its battery. The 3G iPhone should satisfy Apple’s core customers, but it is difficult to see widespread adoption before the battery and baseband are meaningfully improved. That should give AT&T time to upgrade its 3G network to be competitive with Verizon and Sprint. Although doubtful, it might also give competitors time to offer more competitive devices.

Between the imminent WiFi upgrade to 802.11n, mobile WiMax (IEEE 802.16e), and the eventual launch of LTE; wireless broadband will eventually be ubiquitous and most of us will be using an iPhone type device. For Apple it is encouraging how many companies are targeting their mobile platform; with some incredible adoption rates. However, most companies will probably build their “iPhone applications” as web applications that can be just as easily used on a Blackberry or Windows Mobile device; once both companies figure out how to incorporate a web browser into their phone.

 

Disclaimer: I have no position in any company listed, but do intend on purchasing an iPhone once the battery easily lasts a full day and the 3G baseband is competitive with Texas Instruments’ solution.

Altera & Xilinx, the Battle Continues…

, Semiconductors, Tech Investing — @ 1:37 am

The past two days Xilinx and Altera have each reported quarterly results for their June quarter. The market reacted much more positively to Altera’s results sending the company’s shares up 12% yesterday. This is largely due to Xilinx long-term strategy still being fairly opaque. Overall both company’s results were quite good. Altera had a great quarter and in many respects appears better positioned. However, Xilinx may be building the ground work for a game changing announcement later this year.

Earlier this year I outlined how digital products are increasingly migrating to Xilinx and Altera’s FPGAs due to the strong platforms offered by these companies; enabling convergence in semiconductor design. Let me provide an update based on the June quarter results from these two highly profitable companies who control over 80% of the FPGA market.

Altera won this quarters battle

Historically Altera has had better margins and a much higher return on equity. A week ago Zack’s semiconductor analyst Abdul Saleh put out a timely buy recommendation on Altera referencing Altera’s:

  • HardCopy structured ASICs, the leading structured ASIC products
  • Partnership with Taiwan Semiconductor (TSM) which is allowing them to leapfrog Xilinx to 40nm
  • And of course beating the drum of FPGA’s replacing ASICs

Along with these points I think Altera’s growth will be driven through its partnership with ARM (for software processors) and its low power leadership. The partnership with TSM is a big deal. Altera and Xilinx are both fabless which means they outsource the actual manufacturing of their chips. TSM controls approximately half of the semiconductor manufacturing market. Intel has historically had the premier manufacturing facilities. TSM’s foundries are starting to have nearly equivalent capability demonstrated by their ability to produce 40nm FPGA’s later in the year.

Novice note: The smaller process node (for now fewest nanometers) a company can use to manufacture their chips the more powerful the chip can be.

Altera’s Q2 2008 Results (released July 15, 2008)

Financial Highlights
  • Revenue = $359.9M, up 7%, up 13% Q/Q
    • FPGA growth up 18% (9% Q/Q)
    • 90-nm FPGAs were largest growth drivers
    • 65-nm FPGA up over 100% Q/Q
  • Net Income = $98M up 22% / $.32 up 43%

 

“The combination of solid top line growth, continued gross margin improvement, and lower than planned operating expense created significant operating leverage…We are on schedule to ship the industry’s first 40-nm Stratix IV FPGAs [with up to 13.3M gates] later this year…hundreds of early adopter customers have already begun designs with these devices”

        - John P. Daane, Altera’s CEO

Operating Highlights
  • Altera is gaining market share and should continue to do so
  • For the first time Altera believes it has architectural leadership and process technology leadership
  • Book to bill was slightly below one at Q2 end, but has since accelerated over one
  • Rockwell Collins, a top-tier government electronics contractor, recognized Altera as the number-one supplier among its more than 10,000 suppliers
  • Cash = $1.2B / LT debt = $500M
  • Quarterly Dividend = $.05
Guidance: Q3 2008
  • Revenue: Flat to down 3%
  • Gross Margin: 66.5 - 67.5%

Altera was very upbeat; this was their first conference call in some time where the economy was not one of the major discussion points. Altera is benefitting from a couple relatively new markets showing strong growth: Automotive customers are moving from prototype to production cycles and the government now accounts for 7-8% of revenue.

Xilinx is still winning the war, for now…

Xilinx was less upbeat, but also did not seem too concerned about the economy. Xilinx deflected questions comparing Altera’s growth with its own by discussing how Altera dominated the 130 nanometer process node, which is now peaking; even though Altera’s results appeared to be driven by the adoption of its 65nm and 90nm products. In the next couple years 65nm and 90nm products should begin peaking. Xilinx currently has the majority of market share at 90nm and it supplies 90% of the FPGA industry’s 65nm sales. Xilinx’s mid-term future looks very bright with its dominance at the 65 nanometer node. However, Altera’s momentum is making up for some of the initial market share loss due to the delay in their migration to these smaller process nodes.

Analysts are concerned that Altera beat Xilinx to 40nm. This is surprising based on Xilinx’s much faster migration to 65nm. A few years ago Altera delayed their product launches because of a re-design focusing on low power consumption by unveiling what they call programmable power. Since then Altera has definitely benefitted from this low power leadership. This time it appears Xilinx is doing a re-design, to focus on its platform strategy.

Xilinx’s Q1 2009 Results (released July 16, 2008)

Financial Highlights
  • Revenue = $488.2M up 9%, up 3% Q/Q
    • New Products up 15% Q/Q (now 42% of sales, up from 28% in Q1 2008)
  • Net Income = $108M / $.37 (vs. $96.5M / $.34 last quarter)
    • Not including a pre-tax restructuring charges of $19.5M and pre-tax charge of $4.6M related to impairment losses on equity investments
  • Operating Cash Flow = $158M
Operating Highlights
  • Gross margin = 63.8%, up from 63.4% last quarter and 62.2% in Q1 2008
  • YTD has repurchased $350M shares
  • Quarterly Dividend = $0.14 a share (up from $.12 last quarter and Q1 2008)
  • Cash ($1.24B) + LT Investments ($607M) - Convertible ($1B) = $831M
Guidance: Q2 2009
  • Revenues: up 1% to down 3% Q/Q
  • Gross margin: 63 - 64%

For years Willem Roelandts, Xilinx’s former CEO now chairman, advocated FPGAs as a platform for 3rd party IP. Currently developers still get most of the IP (intellectual property) directly from the FPGA vendors or by building it themselves. Xilinx’s new CEO, Moshe Gavrielov, is beating the same drum of 3rd party IP. Soon after joining the company this year he articulated how it now costs $70 million to design a new ASSP, using the latest process node. This requires a billion dollar plus market for such an endeavor to be viable.

Xilinx believes they need to focus less on being a technology innovator in order to create market opportunities, but instead pursue a business platform leadership position. This strategy appears to make sense since the last couple years analysts have pondered why ASIC designs have not seen a mass migration to FPGAs as expected. Instead ASIC starts have migrated more to ASSP products. This creates a huge opportunity for platform FPGAs to take market share from mid to low volume ASSPs.

This is not a war of attrition

Altera’s strategy is clear. Leverage its low power leadership and relationship with TSM to create the most advanced FPGAs that can be migrated to its structured ASIC product. Xilinx strategy is yet to be fully unveiled, but it is focused on building a platform that vendors can use to create IP and end products that will compete directly with lower volume ASSPs and IP now designed for ASICs/ASSPs.

No longer is Xilinx strategy to focus primarily on technical innovation to create market opportunity, but instead to focus on customer requirements to fill a technological product void. This year Xilinx has re-structured the entire organization around creating vertical platforms (devices that basically compete directly with ASSPs and microcontrollers) and horizontal platforms (generic platform devices).

Such platforms for ASSP and microcontroller replacement will require using standard soft-cores within a powerful FPGA for ease of use by end product device developers and easy IP migration to newer chips. In many respects this strategy relies more on Xilinx’s ability to build a platform ecosystem of vendors and 3rd party IP providers than offering the most cutting edge performance. Unfortunately for investors, Xilinx has yet to announce exactly how it intends to accomplish the task of building this platform ecosystem.

Both companies can be successful. Neither company has interest in starting a price war. Each company has thousands of legacy customers that are not looking to switch vendors.

While I personally think this recession overall will be one of the most severe in decades I think it will be relatively minor for the technology industry; compared to the 2001 technology-led recession. The semiconductor industry is a leading indicator for the technology sector. In their conference calls both companies showed minimal concerns about the economy affecting their business. This is a reassuring sign for the technology sector.

Disclosure: I own a little more XLNX than ALTR. I will reconsider this allocation based on Xilinx’s platform and process node announcements later this year. I have investments in no other company mentioned.

Next Generation Semiconductor Design

, Editor Picks, Semiconductors, Tech Investing — @ 10:45 pm

I was pleased that Seeking Alpha published a summary of my paper on the Next Generation of Semiconductor Design and honored that they made it an Editors Pick. Over the past couple years I’ve find Seeking Alpha to easily be the best source for investment ideas. On my Seeking Alpha post I put a follow up comment that did not include some links so I thought I would re-post it here.

 

To help clarify, Xilinx and Altera have platforms that their clients develop products on top of and Xilinx and Altera make money by selling chips that go into these end products. While it is true that Microsoft needs to care about the layman’s needs, Xilinx and Altera only need to support engineers due to the nature of their products.

As for whether Xilinx or Altera is in a better position the simple answer would be Xilinx since they have a larger market share and currently appear to have more mindshare. Of course, things are rarely that simple. Altera has better margins and has made some great moves the last couple years such as: partnering with ARM, designing for power management, and having the best path to structured ASICs.

Both Xilinx and Altera have independently discussed that future growth is in adjacent markets not fighting a battle of attrition between each other; such is the benefit of a duopoly. It typically takes two years from design win to volume production and I don’t expect meaningful revenue growth in the PLD industry for about a year and a half. Right now I don’t see a major difference in design wins between the two companies, but that could change.

I think both companies are a great value at the current price and I intend, as best as I can, to track the design wins for these two firms. That will be the leading indicator of who will benefit from the next wave of end product innovation. For the foreseeable future the market can support two major PLD companies and the first losers will be those in adjacent markets.

Semiconductor Design Platforms Conclusion

, Semiconductors, Tech Investing — Tags: , , — @ 5:08 pm

The platform aspects of Xilinx and Altera’s business model do not require that the companies offer the best of breed technology; although they often do. The PLD (programmable logic market) market is not prone to the extreme price competition seen in the ASIC (application specific integrated circuit), generic processor, and memory markets due to the high barriers to entry caused by the required software platforms and the lock-in once a vendor selects a PLD design platform. This makes the two dominant PLD vendors, who control over 80% of the market, very profitable with net margins over 20%.

The PLD market will see solid growth for years once several macro trends emerge causing a tipping point in PLD demand. These emerging trends are

  • The increasing complexity of new semiconductor devices
  • The new markets for PLDs due to microprocessor performance barriers and dramatically shortened end product lifecycles
  • The maxing out of the current communications infrastructure
  • World-wide growth due to globalization, potentially temporarily restrained due to a US consumer led recession

Semiconductors often act as a leading indicator for the technology industry. Xilinx and Altera are up 27% and 18% respectively this year after several years of their stocks floundering with negative returns. With Xilinx and Altera’s accelerating design wins it appears the still have considerable room to run.

If you have any questions or comments related to the posts from this paper shoot me an e-mail. You can view our entire paper on the Next Generation of Semiconductor Design or use the links below to jump to specific posts from the paper.

Part 1, 2, 3, 4, 5, 6, 7, 8, 9, 10, 11, 12, 13, 14

Programmable Logic - New Markets

, Semiconductors, Tech Investing — Tags: , , — @ 8:55 pm

In the previous two posts on why semiconductor solutions are converging and why this is a great opportunity for FPGAs. I explained this was occurring because of increasing semiconductor complexity and physical barriers. Below are two new end market opportunities as a result of increased digital IC complexity and physical barriers.

FPGAs in Supercomputers

FPGA’s have moved into supercomputers as the enabler of Reconfigurable Computing. Like any change in the marketplace, reconfigurable computing also represents a risk. Companies like Stretch are creating FPGA like software configurable microprocessors, but how straight-forward will engineers find the design tools?

The architecture for a RPU (reconfigurable processor unit) system is just now becoming standardized. While FPGAs theoretically have the ability to be reprogrammed at run-time software development tools have not supported this. While some proprietary systems, such as Cray’s FPGA-augmented XD1 and SGI’s Altix with RASC option, have seen limited success it appears FPGA’s may finally be entering the standard x86 market.

FPGAs entering the IT (PC/Server) Market

The reconfigurable computing data-stream-driven model may alleviate many of the performance barriers in the existing x86 server market. As prices fall and the speed of a single processor core stabilizes it is not farfetched to see FPGA’s in desktop PC’s and cell phones. A PC manufacturer may decide to use a FPGA chip to implement common tasks such as TCP/IP processing.

Xilinx and Altera are working with Intel and AMD to plug directly into new multi-core processor’s front-side bus architecture. We may start to see PLD products for this as early as mid-2008.

Both Intel and AMD have developed their own technique to allow PLD’s to plug into the PC architecture. In June 2006, AMD announced its Torrenza program creating an interface to plug into its proprietary HyperTransport CPU bus. Not to be left behind, Intel, along with IBM and others, in September 2006 announced Geneseo an open source project creating a set of extensions to PCI Express aiming to help graphics chips and other accelerators. Geneseo proposals aim to extend Express in four general areas: fine-grained power management, locking shared memory, hints to help coherent processor handle I/O more effectively, and efficiencies for mapping virtual to physical memory.

 

PC and server architectures are highly standardized alleviating many of the advantages of PLDs. However, as computers take over more real-time computing functions, like processing high definition video signals, there may be more of a need to balance the inflexible speed of ASICs and the flexible sluggishness of software for x86 processors. Some examples of new real-time PC computing functions could be replacing proprietary PBX systems with generic servers running unified communications software or streaming video from a home server appliance.

Semiconductor Design Changes

, Semiconductors, Tech Investing — Tags: , , — @ 8:00 pm

This is my second of three posts on why semiconductor solutions are converging and why this is a great opportunity for FPGAs.

The Memory wall

For well over a decade processor speed has been increasing more than memory speed, because much more R&D has been poured into logic and processor design. This is because logic (Broadcom, Xilinx, Altera) and processor designers (Intel, IBM) have far better margins than memory designers (Micron, Spansion, Samsung).

Physical Barriers

It is apparent that for servers the application performance improvement curve is flattening. Intel’s generic microprocessor architecture has overtaken many RISC processors because of the shear R&D money Intel has dumped into its x86 design and manufacturing compared to RISC makers. Even so, Intel is no longer dramatically increasing the speed of its processors.

Intel is only able to keep up with Moore’s Law by adding more processors. Inefficiencies abound from using multiple processors. Programmers are not taking full advantage of these multi-core and multi-processor machines because these machines are not offering the proper development platforms and compilers for object-oriented programmers to optimize for multi-core, multi-processor environment. Additionally managing memory in these multi-core architectures is more challenging. Moore’s law is running into an instruction set wall because the data stream is too large.

Physical barriers (like transistor leakage) are inhibiting the ability for semiconductor companies to continue keeping pace with Moore’s Law. To keep up with Moore’s Law microprocessor designers are forced to build up by adding more processors. Processor manufacturers’ ability to scale clock speed and shrink transistors is decelerating. They must now use parallelism.

Semiconductor Design Convergence

, Semiconductors, Tech Investing — Tags: , , , — @ 3:18 am

In my next three posts I’ll wrap up my series on Investment Opportunities in the Next Generation of Semiconductor Design. In these three posts I’ll cover why semiconductor solutions are converging and why this is a great opportunity for FPGAs.

Convergence of Software Design Platforms

Programming many-core microprocessors and FPGAs is also a problem of educational deficits and development platform shortcomings. The developer’s choice here may ultimately be decided by who builds the simpler development platform or raises the level of abstraction through powerful framework IP.

Where the innovation is made will make all the difference. Will embedded systems use Platform FPGAs, dedicated microprocessors, or DSPs? With globalization and the Internet; China, India, Russia, and Eastern Europe are producing hundreds of thousands to millions of engineers. Altera has over 30 joint laboratory and training centers in China, but it is not alone as Xilinx and other major semiconductor firms are working to get the next generation of engineers to learn and innovate on their platform. What development platform will win the minds of the next innovators?

Competition is migrating from semiconductor companies solely competing based on their IC based on the platform they offer. Microchip is a successful example of this strategy. When the innovation in the IC slows the innovation moves to the platform; and the efficiency it bequeaths on the end product designer.

The information technology departments and particularly web software developers have discovered and embraced agile project development methodology. Rapidly shrinking product lifecycles are encouraging digital product designers to embrace similar prototype and release agile strategies.

Platform FPGAs as SoC

As chips become more complex their design and manufacturing costs increase dramatically. More requirements require a complex design which produces more functionality to test and debug, and a more complex design triggers lower yields and higher NRE in the manufacturing stage. Embedded systems are being designed around SoC. Industrial, automotive, and consumer electronics devices are increasingly becoming digitized.

Another example of an FPGA SoC is HDTVs. Most HDTV are now designed with a stand-alone FPGA or coupling an FPGA with an ASSP as a coprocessor. These Platform FPGAs include hard-coded DSP blocks, internal memories, and standard IP blocks along with the programmable logic.

High-end convergence consumer devices are a great opportunity for FPGAs. In addition, the growth in internet traffic is will create another round of build-out in the FPGA industry’s sweet spot, telecom and networking.

In 2008 products built around an FPGA will be delivered. What will be new is that for the first time some of these products will be built on an industry-standard soft-core processor architecture from ARM which ARM released in 2007 specifically for FPGAs. Now the huge base of ARM engineers can develop software for embedded systems based on a FPGA system-on-a-chip and use the massive installed base of ARM software and tools. Will adding an ARM processor and its accompanying ecosystem to the FPGA platform be the inflection point for FPGA design wins and the growth that inevitably follows?

Programmable Logic Market Risks

, Semiconductors, Tech Investing — Tags: , , , — @ 2:27 am

This is my last post related to the potential risks to Xilinx and Altera’s continued market dominance in programmable devices and growth into adjacent semiconductor industries in my 14 post piece on investment opportunities in semiconductor design. To summarize the other risks where

  • Competition from other Platforms
  • Existing Competitors and new entrants
  • Competition from ASICs and reliance on the communications sector

The Semiconductor Industry is Cyclical

Due to the .com and telecom bubble PLD sales surpassed economical sense in 2000 and 2001. After bottoming in 2002 PLD sales have grown at a compound annual rate of about 15% and FPGA sales have grown roughly 20% annually. FPGA’s are now 75% of total PLD sales. In 2001, the PLD market peaked at $4.1B and in 2002 bottomed at $2.3B. Since 2002, both Altera and Xilinx have gained market share every year. The PLD market has only recently exceeded the peak experienced in 2001.

It looks like the economy is headed back into a recession, but unlike the 2001 recession, which was business capital spending induced, this recession looks like it will be driven by a drop in consumer spending. This will affect semiconductor sales, but it will not be nearly as dramatic as the drop in 2001. Although some firms may experience financing issues, companies are for the most part well capitalized.

The 2001 recession was caused by a glut in supply of technology products and an over investment in technology oriented startups. The 2008 recession has neither of these characteristics.

In 2001, companies like, Xilinx, Altera, Cisco, EMC, Sun Microsystems, etc sold (and often helped finance) products to startups and other customers in the technology sector whose unprofitable business models caused them to go bankrupt when the market turned down and venture capital investment dried up. These bankrupt or dramatically downsized companies dumped their newly purchased technology products on the market. So not only had demand decreased drastically; supply increased drastically; causing a glut in the market that took years to work through.

This time supply chains have been optimized for just in time product delivery and technology companies’ balance sheets have never been stronger; often in conjunction with record low sales to inventory ratios. While there may be some re-selling of technology equipment in emerging markets it should be minimal compared to what occurred in the telecom and .net bubble of 2001. In addition, within the semiconductor industry, PLD sales should fare better than most since they require less up front risks, such as time and costs.

With rational supply and persistent growth in data storage, networking, and the digitization of industrial components this recession will look much different than the technology led recession of 2001. Recessions also spur new cost cutting or risk reduction strategies. Companies that have solely relied on ASICS or generic PC architectures may explore the benefits of programmable logic.

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