News — S2 Corporation

Aaron Traxinger

S2 Corporation and MSU announce new contract for big data processing

June 21, 2017 -- MSU News Service

S2 Corporation, of Bozeman, and Montana State University’s Spectrum Lab, announce the award of a $1 million dollar, 12-month research contract from the Intelligence Advanced Research Projects Agency, IARPA, to develop an efficient, high-data rate photonic computational engine for 2-D image processing. Applications include virus detection in streaming digital data, key features search for computer vision, and queries in massive unindexed databases. 

The S2 processor-in-memory capability is analog and photonic based, using laser light to interact with a crystal, and falls within a new class of technology different from typical integrated circuits.  Microprocessors, microcontrollers, memory, and other digital logic circuits use complementary metal–oxide–semiconductor, CMOS, transistor architectures.  The S2 approach is of interest to IARPA’s Filtering and Selection Technology, FaST, program for its extremely high data rate and performance in wall power efficiency compared to the typical CMOS based approaches.

The new work builds on prior IARPA-funded efforts at S2 over the past two years, which propelled early S2 capability for real-time streaming data search by 10,000-fold; up to high single line rates of 200 gigabits per second and, very importantly, with a simultaneous 100-fold reduction in power relative to state-of-the-art digital supercomputers.  The prior work, soon to be published in Applied Optics, established plausibility of real-time, key feature identification in streaming data and large unindexed databases, and circumnavigates the otherwise insurmountable memory latency delays and associated energy cost penalties when using conventional CMOS processors.  The prior work completed in 2016 also demonstrated the plausible potential for further scaling of S2 capability to an extraordinary 10 terabits per second throughput for data processing, by advanced engineering efforts. 

The new work, started in March 2017, includes a subcontract to Montana State University. 

The S2 team is pursuing this area to address the global challenges of processing increasingly massive data in real time and with energy efficiency. 

“The interest is there,” said Kris Merkel, CEO of S2 Corporation, “and we are working to advance the power of S2 technology to meet strategic global needs that currently outpace the capability of conventional electronics.” 

Zeb Barber, director of Spectrum Lab at MSU, said, “The fundamental research at MSU allows opportunities for faculty and students to advance the state-of-art in new realms of physics-based algorithms and applications, and to work on cutting-edge technology alongside industry.”  

IARPA recognized the potential of S2 technology several years ago, and encouraged this new direction of research.  

“S2 technology provides a near instantaneous Fourier transform of streaming data, storing the vast spectral components as microscopic holograms inside a cold crystal, and permitting real-time multiplication of data at unprecedented clock rates and power-efficiency.  Dot-product-engines of this kind possess immense significance to science and engineering.  If successful, and the challenge remains high, it is difficult to overstate the significance of a potential breakthrough in streaming 2D imagery analysis for computer vision,” said Karl Roenigk, IARPA program manager.

Contact: Kris Merkel, president and CEO, S2 Corporation, (406) 922-0334, merkel@s2corporation.com; Zeb Barber, director of MSU's Spectrum Lab, (406) 994-5925, barber@spectrum.montana.edu
 

Related Articles

S2 Invests Cumulative $5 Million at Montana State University

S2 Corporation has invested in research at Montana State University in Bozeman, MT, which has involved over $5 million invested, and has led to much of the technology in holographic crystals. For the full article (featured both in the Bozeman Daily Chronicle and the MSU Website), and information on S2 sponsored research at MSU, click the link below. 

S2 CEO Receives Electronic Warfare Development Award

DR. KRIS MERKEL, PRESIDENT AND CEO OF S2 CORPORATION, WAS AWARDED THE JERRY SOWELL radio frequency AWARD IN 2014 FROM THE ASSOCIATION OF OLD CROWS (AOC).

Citation reads:

"Dr. Merkel has committed 15 years to advancing wideband spectrum monitoring technology, with 2013 representing huge strides in reaching 20 GHz full instantaneous bandwidth, with >63 dB dynamic range spur free and 500,000,000 frequencies per second, and 4 field tests showing capability in tactical spectrum sensing and many advanced functionalities in direction finding and signal identification."

THE AOC IS AN ORGANIZATION FOR INDIVIDUALS WHO HAVE COMMON INTERESTS IN ELECTRONIC WARFARE (EW), ELECTROMAGNETIC SPECTRUM MANAGEMENT OPERATIONS, AND OTHER INFORMATION-RELATED CAPABILITIES.

S2 Featured in Laser Physics 2014

S2's publication on Spectral Holeburning Memory was recently published in Laser Physics 2014. The abstract, authored by S2 faculty, reports

 Many storage and processing systems based on spectral holeburning have been proposed that access the broad bandwidth and high dynamic range of spatial-spectral materials, but only recently have practical systems been developed that rival the performance and capabilities of electronic devices. This paper reviews the history of the proposed applications of spectral holeburning and spatial-spectral materials from frequency domain optical memory to microwave photonic signal processing systems. The recent results of a 20 GHz bandwidth high performance spectrum monitoring system with the additional capability of broadband direction finding demonstrate the potential for spatial-spectral systems to be the practical choice for solving demanding signal processing problems in the near future.

S2 Presents at NWRCS

S2's Kris Merkel recently presented at the National Wireless Research Collaborating Symposium, on the company's testing of their 10 GHz Instantaneous Bandwidth Spectrum Monitoring, which took place at Idaho National Labs. Markel explains: "S2 Corporation tested its wideband RF spectrum monitor at Idaho National Labs (INL) in December 2013. Rich RF spectrum data was collected over 0.5-10 GHz with 250,000,000 unique frequencies per second, with a resolution bandwidth below 0.1 MHz and full spectrum frame rate of at least 2,000 frames per second. Wireless signals at INL were controlled during captures, and concurrently an FCC Special Transmit Authority (STA) allowed transmission in frequency hopping signals across the 10 GHz bandwidth for calibration and added signal environment."


S2 Paper Presented at GOMAC 2014

S2's publication titled "20 GHz Instantaneous Bandwidth RF Spectrum Analyzer Measurements with High Sensitivity and Spur Free Dynamic Range" was recently presented at the GOMAC 2014 conference. The following describes the papers findings:

The paradigm of operations for radio frequency (RF) monitoring is rapidly moving towards “wideband sense and react”, given the proliferation of transmitters for radar and communication systems operating over more of the electromagnetic spectrum (EMS). A significant challenge for present and future military and commercial systems is to analyze signals over a wide bandwidth, out to 120 GHz, in real time without any scanning in frequency, and without any prior knowledge of the signals, carrier frequency, or modulation format. For spectrum monitoring (SM), a receiver system must have a high spur free dynamic range (SFDR), so that the small signals of interest (SOI) are not mistaken for the false signals – spurs – that are generated by large signals, such as other SOIs, co-site interference, or jammers. The system should have fast update rates for tracking signals with fast pulse repletion frequency (PRF), with changing PRFs and wide bandwidth to handle frequency hops, and low latency to cue other systems or countermeasures. Such a system should also have high RF sensitivity. Typical high sensitivity measurement systems “choke down” the bandwidth to get a lower noise floor, which can approach the thermal noise floor limit of -174 dBm/Hz, less the noise figure (NF) of the system. Typical narrow band measurement techniques use superheterodyne detection at a fixed frequency and resolution bandwidth (RBW). For wideband coverage the local oscillator (LO) tunes across the desired bandwidth dwelling on each frequency sequentially [1]. Modern digital spectrum analyzers use digitizers and Fast Fourier Transform (FFT) processing to enable higher instantaneous bandwidth measurements limited by mainly the digitizer performance [2]. In comparison, our spectral sensing system remains fully open to the entire bandwidth of interest, presently over 20 GHz and readily extendable to >100 GHz, operates with high sensitivity, high SFDR and generates 400,000,000 unique frequency measurements per second. 

S2 System featured in ONR Innovation Newsletter

Dr. Peter Craig, Electronic Warfare ONR312 Program manager writes in the Fall 2012 ONR Innovaiton Newsletter: 

"The S2 system “creates a super-vision of the EMS where such signal techniques as frequency hopping, chirping, or spectrum spreading become visible as patterns in a real-time frequency map… This ONR investment has resulted in a system that can simultaneously monitor all EMS emissions over a span of 40 GHz while resolving signals that are separated by only a few 10s of kilohertz – and continuing research will increase this span to greater than 100 GHz.”