In the News
RCR Wireless, February 10, 2015
Azimuth Systems joins RCR Wireless in a hangout to discuss testing Wi-Fi positioning and some of the challenges associated with this
RCR Wireless, February 10, 2015
Azimuth Systems joins RCR Wireless in a hangout to discuss VoLTE testing and the need for analytics in this context
RCR Wireless, August 25, 2014
Azimuth Systems compared the four national wireless operators’ network performance based on device/network interactions, and it has released its results in a case study.
Light Reading, July 14th, 2014
How does one ensure the smooth rollout of new, revolutionary, disruptive technologies such as VoLTE, especially when subscribers have high expectations for performance and reliability that evolved out of their experience with mature, legacy technologies?
Light Reading, September 04, 2013
Azimuth Systems wants to revolutionize how wireless operators and device makers test new LTE devices, so it’s launching a platform that it claims will give them the entire picture, from the lab to the field and from the network to the device (and the apps on it).
RCR Wireless, September 04, 2013
Azimuth Systems introduced a testing solution focused on user experience and device performance, as well as assessing network conditions.
EDN, October 19, 2012
The ACE MX2 MIMO channel emulator from Azimuth delivers real world test capability for MU-MIMO, InterRAT, and carrier aggregation deployments. The emulator features built real time fading capabilities enable users to recreate a variety of typical MIMO scenarios for accurate performance and interoperability testing, with up to 64 channels available in a scalable configuration. Advanced geometric modeling capabilities enable real world test with the antenna models necessary for testing of leading edge base stations and full dynamic channel modeling.
Wireless Design & Development, October 4, 2012
In today’s complex wireless ecosystem, as our mobile devices have continued to evolve, users have come to expect continually improving functionality. Accordingly, chipset vendors, device and infrastructure OEMs, and carriers are challenged to keep up if not accelerate the pace of innovation while maintaining high product quality. Their design and development teams are pressed for rapid and efficient development — but must still ensure that the final product meets end-user requirements.
Electronic Design, September 6, 2012 issue
The many facets and evolving nature of multi-input, multi-output (MIMO) antenna systems have test companies scrambling to stay ahead of industry requirements. Depending on where the tests are performed, from academia and industry R&D labs to product qualification and manufacturing, or from ICs to basestations to handsets, the requirements vary considerably. The latest test and measurement techniques to verify leading-edge performance in research labs as well as cost-effective production testing for the U.S. and other regions are among the recent changes.
Telecom India Daily, September 2012
Azimuth’s Erik Org is included in the Viewpoint section (page 12).
Field to Lab tools can not only make it easier to run the tests but may also provide tools to visually compare and evaluate the RF conditions.
Microwave Journal, May 10, 2012
Seamless communication is critical to the successful execution of military operations, but ensuring reliability from communications systems and devices is rapidly becoming ever more difficult. More protocols, more frequency bands and more applications all add to the complexity of developing and testing military communications equipment so that it performs with an advanced degree of reliability in the field – and ensures both mission success as well as the safety of the military personnel that depend on it. However, ensuring the latest tactical radio systems consistently perform as expected presents a number of unique challenges given dangerous battlefield conditions and the often harsh, remote terrains where military communications systems must operate.
Wireless Design & Development, March 29, 2012
Erik Org, Azimuth’s senior marketing manager, is included in Wireless Design & Development’s Tech Exchange on Testing Today’s Devices.
Mobile Dev & Design, December 2, 2011
Across the wireless ecosystem, new product development teams for chipset vendors, device and infrastructure OEMs, and carriers face a host of challenges. Fueling the fire is the proliferation of multi-antenna (MIMO) designs, which intensifies the complexity when testing of today’s OFDM-based mobile devices. To shorten development times, it’s essential to incorporate real-world test methodologies when comparing performance results from the beginning to the end of the complete design cycle for a wide variety of engineering teams and labs (including chipset development, handset development, network interoperability, and acceptance testing.
Evaluation Engineering, September 2011
Testing today’s advanced smartphones and mobile devices involves many phases. The final predeployment test typically is device validation, commonly performed under the field conditions where the subscribers will actually use them. However, device field testing across diverse conditions of terrain, population density, physical location, and motion is extremely time-consuming and costly and lacks repeatability.
Wireless Design & Development, May/June 2011
Real-world drive testing is very expensive; lab testing is much less expensive and faster — provided that the real world can be emulated with sufficient fidelity. Field-to-Lab allows service providers, equipment manufacturers, and chipset vendors to take real-world drive test logs collected from around the globe, and replay the data in the ACE MX MIMO channel emulator in order to effectively recreate actual field conditions in any lab, during any phase of the equipment design and qualification cycle for equipment benchmarking, troubleshooting or many other purposes.
Antenna Systems & Technology, Spring 2011
With the recent deployments of live LTE networks and ongoing WiMAX deployments worldwide, today’s new mobile devices are required to deliver higher levels of throughput than ever before. Multiple Input, Multiple Output (MIMO) technology is used as the foundation of 4G radio technologies including LTE and WiMAX to enhance the overall performance of radio transmitters and receivers with respect to the effects of the air interface. Multiple transmit and receive data paths are used in MIMO systems to provide significant increases in throughput and robustness by exploiting the characteristics of the radio channel.
Mobile Dev & Design, December 13, 2010
Cost and time savings, plus the ability to test at any stage in the development cycle and at multiple locations using “real-world” data, makes the field-to-lab solution an essential tool for improving pre-deployment mobile infrastructure and device qualification and for lab-based replication and resolution of field-reported issues.
Evaluation Engineering, August 2010
A new solution for MIMO OTA testing combines a channel emulator with a reverberation chamber to create a shielded environment for testing EMC and other EM investigations that achieves MIMO throughput performance testing and enables accurate good/bad wireless MIMO device performance prediction.
LTE vs. WiMAX – A Test Perspective
Wireless Design & Development, May/June 2010
The marketing battle between WiMAX and LTE is raging in an effort to declare which is the best solution, and vendors and service providers are racing to put stakes in the ground to claim the first or most predominant network delivering wireline speeds.
Mobile Dev & Design, February 12, 2010
Testing LTE and WiMAX systems with MIMO becomes the critical differentiator for performance testing.
Electronic Design, September 10, 2009
Testing MIMO wireless communications takes on a new perspective from previous generations of short- and long-range wireless solutions. Central to this testing is a tool called a channel emulator. It can reproduce dynamically changing transmission conditions to stress the MIMO scenario and ensure optimal performance and interoperability.
EDN Asia, June 2009
The universal demand for constant access to voice and data communication, along with the increasingly rich availability of Wi-Fi (wireless-fidelity) and cellular connectivity, is driving a widespread demand for converged Wi-Fi/cellular applications and services. Promising better access to voice and data services as well as lower communication costs, FMC (fixed/mobile convergence) has the potential to greatly affect the world of communications.
Testing LTE and WiMAX OFDM/MIMO-Based Systems
Wireless Design & Development, April 2009
The introduction of new radio technologies, like OFDM and MIMO, in LTE and WiMAX systems has created the need for new types of test equipment.
Sustainable consumer demand for converged Wi-Fi-plus-cellular applications and services will depend on carrier-grade FMC services that deliver a good end-user experience. Before you can achieve these benefits, however, FMC products need to deliver the same quality as today’s cellular-only services.
Wireless Design & Development, March 2009
Mobile wireless ystems have dramatically evolved over the past two decades. Commercial wireless networks in the early 1980s provided low-capacity, voice-only services, whereas, in today’s world, a growing number of mobile wireless networks are evolving to support higher capacity throughput for data-hungry applications.
Embedded Computing Design, August 2008
4G wireless technologies and standards including WiMAX and Long-Term Evolution (LTE) have become the future hope of the industry, promising throughput and range to support an expanded set of capabilities.
Wireless Design & Development, July 2008
4G wireless, including the 3GPP Long Term Evolution (LTE) standard and WiMAX based on the expected 802.16m standard, promises to deliver the wide range of services that users demand, but it requires complex RF technologies to achieve its goals.
Evaluation Engineering, June 2008
The rich availability of Wi-Fi connectivity and the universal demand for constant access to voice and data communications are driving consumer and enterprise demand for converged Wi-Fi/cellular applications and services.
Microwave Engineering Europe, April 2008
As WiMAX and Wi-Fi become increasingly popular, the stakes increase for vendors servicing the market and the engineers developing new products. Both standards are in the midst of a MIMO technology transition, providing further incentive to find new design and verification tools that can accelerate development of higher performance products.
Nikkei Electronics Asia, March 2008
Next-generation mobile wireless technology represents an important step in the drive to broaden access to high-speed wireless services. In-lab controlled channel emulation is central to accurately characterizing the effect of multi-channel RF interactions on the conformance, performance and interoperability of WiMAX and Wi-Fi systems for both MIMO and SISO (single input single output) implementations.
Evaluation Engineering, August 2007
With the promise of greater throughput and range capabilities, 802.11n will enable new voice, video, and data applications that demand greater performance. Proper test and measurement of device and network capabilities are critical to ensure the success of this growing market.
RF Design, August 2007
Multiple input, multiple output (MIMO) technology, the foundation for the next generation of Wi-Fi products, leverages multiple transmit and receive antennas to deliver greater wireless throughput and range, enabling ubiquitous high-speed voice, video and data services. Today, three basic methods can be used to test MIMO-enabled devices.
RF Design , March 2007
Multiple-input multiple-output (MIMO) technology is the foundation of the next generation of mobile WiMAX products. In lab-controlled channel emulation, using a channel emulator is required to accurately characterize the effect of multichannel RF interactions on the conformance, performance and interoperability of MIMO and single-input single-output (SISO) WiMAX systems.
RF Design, January 2007
Familiarity with the guidelines and methodology of the standardized approach used by the Wi-Fi Alliance test engine for the certification of Wi-Fi-enabled application-specific devices (ASDs) can streamline the certification process and facilitate the performance testing of these wireless designs.