Argon Design, a leading developer of high performance software applications for manycore communications processors, launched Argon Blaster, the industry’s first flow simulation solution for generating realistic, Internet scale traffic loads and applications to test networking and security equipment.
Blaster delivers a line rate, timing accurate, flow simulation application on an affordable PCIe acceleration card for use in standard x86 platforms. This enables OEMs to cost effectively distribute a high performance simulation and traffic generation solution throughout the engineering organization. The approach significantly reduces development time and cost, while simultaneously increasing product quality.
Blaster is designed for enterprise and carrier network operators for performance testing of flow based cyber security and network analytics applications. It enables network managers to verify that these systems are designed and deployed in a manner to match expected network loads.
High performance, accuracy rule!
Elaborating on the features, Daniel Proch, director of product management, Netronome, said: “Argon Blaster is the industry’s highest-performance and most-accurate flow simulation solution, in an affordable package. Developed by Argon Design, Blaster enables a standard x86 PC with a Netronome flow processor PCIe card to generate realistic, Internet-scale traffic loads and application mixes.
“For many networking applications, the ability to classify and manage traffic flows is key to enabling the highest level of performance and scalability. Quality of Service, Load Balancing, Firewall, Intrusion Detection, Content Inspection, Data Loss Prevention and similar applications all typically require flow-aware processing capabilities and this flow-aware traffic generation solution for development and QA. Blaster is the first traffic generation tool designed specifically for flow simulation applications. With Blaster, you can emulate up to a million unique flows with accurate, consistent, per-flow rate control.”
It will be interesting to know how Blaster will help the ISVs and OEMs generate realistic, Internet-scale traffic loads and applications to test networking and security equipment.
Blaster can be installed in any modern PC running Linux. It installs as a KVM virtual machine and can be operated from within the virtual machine or externally. It replays one more multiple .pcap files and can take that traffic and emulate any type of traffic profile from that pcap(s). The user can change the # flows per pcap file, the addressing scheme (# clients and servers based on MAC and or IP address).
From this set of knobs and given a set of pcaps with appropriate application traffic to any traffic load and application mix that is desired. Organizations can then offer:
* Performance benchmarking to isolate bottlenecks.
* Stress testing with real-world loads.
* Security testing with background, application and attack traffic.
* Quality assurance with broad spectrum of application and protocols.
Let’s find out a bit more about the role played by Netronome as well as Argon Design. Proch said: “The product is an Argon branded product that is a joint development with Argon Design. Netronome provides the accelerated flow processing hardware for the solution in the form of a standard PCIe card, and Argon designed and engineered the software. Netronome will be handling sales and marketing of the product. Software and support will be handled by Argon.”
Will there be an upgrade sometime later, next year, perhaps? “Most certainly,” he continued. “Our early access customers and internal use has already developed a robust roadmap and we anticipate these features and others to be rolled out over several subsequent software releases. We also expect to have a new hardware version based on our recently announced NFP-6xxx family of flow processors when available.”
In a recent report, iSuppli predicted that driven by new demand from consumer electronics (CE) and wireless applications, the global market for microelectromechanical systems (MEMS) will expand to $8.8 billion in 2012, up from $6.1 billion in 2006.
I caught up with Jérémie Bouchaud, Director and Principal Analyst, MEMS, iSuppli Corp., to find out more about the dip in the fortunes of the mainstay products and the latest trends in the MEMS market, especially, the significance of consumer electronics applications such as motion sensors for gaming, laptops and DSCs, and mobile handsets.
Will the mainstay products for MEMS actuators, inkjet heads and DLP chips, will lose market share? Or, is it a slight dip?
Jérémie Bouchaud says that MEMS actuators, include inkjet and DLP, and also RF MEMS switches. While selling prices stay constant, MEMS inkjet heads are losing shipments at a rate of 6 percent per year over the forecast period, so the market grows only slightly at 0.4 percent CAGR from 2006-2012.
DLP shipments continue to grow, but price erosion is running at 10 percent CAGR, which means that the market is shrinking at close to 5 percent per year to 2012. RF MEMS switches are the one bright spot that helps the market for this type of MEMS device to recover slightly in 2012. RF MEMS switches will grow at 100 percent CAGR over this time to top $260 million in 2012.
The new wave is partly founded in the rapid rise of consumer electronics applications such as motion sensors for gaming, laptops and DSCs, and mobile handsets. How much share are these segments likely to garner?
According to the analyst, all types of sensors in wireless communications and consumer electronics (inertial, pressure, microphones, filters, oscillators etc) exceed $1,5 billion: or 17 percent of the total MEMS market.
“Specifically, the motion sensing opportunity, including accelerometers and gyroscopes, for consumer applications like MEMS accelerometers for mobile phones (e.g., image rotation such as in iPhone and Nokia phones), gaming (Nintendo Wii, Playstation 3), etc., and gyros (mostly digital still cameras and camcorders, gaming like Playstation 3) will grow at over 20 percent CAGR from 2006 to 2012 to exceed $680 million, about 8 percent of the total market,” he said.
iSuppli has also mentioned automotive as a key area for MEMS. What kind of growth does it see for automotive?
Bouchaud adds that automotive will grow at 8 percent CAGR to reach $2.1 billion in 2012, up from 1,3 billion in 2006. The market is largely driven by mandates for tire pressure monitoring, electronic stability control systems and reduced emissions, accelerating growth for pressure and inertial sensors.
So, will “new players have a chance to address a relatively open market”, and if yes, what would those markets be?
Bouchaud indicates that the consumer electronics market is more open than the automotive sector, which features established, long-term supply arrangements, and production cycles lasting five or more years.
CE applications are characterized by fast time-to-market and short product lifetimes. For example, mobile phones that change yearly or even more frequently, and supply agreements satisfied by fast manufacturing ramp-up and ability to meet seasonal demand spikes, and often several suppliers in the same product, (e.g. ST and ADI in Wii). As sensor specifications are more relaxed than automotive, price and footprint are most decisive.
Will there be a growth in dedicated mass production facilities then?
According to him, several large MEMS players, e.g., STMicroelectronics, Freescale and Bosch Sensortec, have or are now invested in upgrading to 8″ production facilities to meet the higher demand from the consumer sector. By 2011, at least 12 companies will operate at this larger wafer size.
“Some companies like Analog Devices are at the limit of their current capacity, due to its strong automotive sensor offering, and has recently decided to work with non-MEMS CMOS foundries like TSMC, a first in the industry. UMC will also join the MEMS community, partnering with Asian Pacific Microsystems,” he says.
And, how would the new entrants be investing in R&D? Will they be doing enough?
The analyst says that R&D rates run high in automotive (12-15 percent of MEMS revenues) and even higher in consumer (can be 15-20 percent). The high R&D rate is needed to sustain leading edge products in fast moving markets. Deep R&D pockets are needed, a luxury that is not available to all.
Elaborating a bit more on the market consolidation, he says: ” Today, the share of the MEM revenues in the hands of the top 30 MEMS companies grew at about the same rate as the market. The markets that drive growth in MEMS are consumer electronics and automotive sensors.
“The sensors will be increasingly commoditized due to extreme price pressure in both sectors, and iSuppli expects the production of MEMS devices for these two markets to be concentrated among fewer companies in the future. One facet is manufacturers attempting economies of scale by combining sales in automotive and consumer areas, e.g. at Bosch, and in future with Freescale and ST.
“Other companies are pioneers and hold a strong market position for a relatively long time. Examples are TI with DLP chips and Knowles with MEMS microphones. We also expect more M&As in the near future to exacerbate the consolidation.”