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Advantest Announces Dates & Locations for VOICE 2017; Call for Papers Open through Nov. 18

voice-2017

Advantest has issued an international call for papers on semiconductor test solutions, best practices and innovative technologies for next year’s annual VOICE Developer Conference. The 2017 conference will again be held in two locations — Palm Springs, California, at the Hyatt Regency Indian Wells Resort & Spa on May 16-17, and VOICE will return to the growing China region with an event at the InterContinental Shanghai Pudong on May 26. Both conferences will feature the theme Measure the Connected World and Everything in It.

why-attend-2As VOICE enters its second decade in 2017, the conference will continue to offer attendees comprehensive learning and networking opportunities including technical presentations focused on eight technology tracks, partners’ expositions and social gatherings. In addition, the VOICE Technology Kiosk Showcase will expand to include more interactive discussion sessions for users of Advantest’s V93000 and T2000 system-on-a-chip (SoC) test platforms, memory test systems, handlers, test cell solutions, product engineering and test technology.

For VOICE 2017, Advantest’s call for papers focuses on eight technology tracks:

Hot Topics
Concerns new market drivers and future trends including V93000 Wave Scale RF and MX, automotive power analog, Internet of Things (IoT), emerging wireless standards, and test challenges at next-generation technology nodes.

voice-2017-topics-2Device-Specific Testing
Covers techniques for testing MCUs, ASICs, PMICs, automotive radar, sensors, memory, baseband, cellular, multi-chip packages and more.

Hardware Design and Integration
Includes tester/handler integration, probe and package loadboard design, challenges of new package technologies and fine-pitch devices, and more.

Improving Throughput
Addresses test-time reduction, increased multi-site, multi-site efficiency, concurrent test, and more.

Reducing Time-to-Market
Encompasses DFT, pattern simulations/cyclization, automatic test program generation, system-level test, and more.

New Hardware / Software Test Solutions
Focuses on solutions utilizing the latest hardware or software features.

techsessions_0712Test Methodologies
Involves techniques for testing DC, RF, mixed-signal or high-speed digital devices.

Product Engineering

Includes software and tools for data analysis, test program documentation/versioning and production test elimination techniques.

Sponsorship opportunities are also available.  Please visit the VOICE 2017 website to find out more.

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Applying Flexible ATE Technology to Protocol Test and the SSD Market

By Scott West, Global Technology, Innovation and Research Group, Advantest America

The technology applications for which a broad range of connectivity and communication protocols can be employed continue to grow. Manufacturers of end products for these markets increasingly need flexible ATE solutions that they can employ cost-effectively to ensure functionality.

One of the first areas where protocol test has proven successful is the solid-state drive (SSD) market, which is growing rapidly, as shown in Figure 1. In addition to replacing hard disk drives (HDDs) for many applications, SSDs are also expanding into solid-state storage, as they offer advantages with respect to performance, power consumption and form factor, to name a few. While HDDs aren’t expected to disappear entirely – they remain useful for cold storage of data not accessed frequently – SSDs are desirable for fast response time and quick access to frequently used data.

mpt3000

Figure 1. Unit shipments for the SSD market are expected to approach 300 million by 2020.

While many SSDs started out using SATA at a speed of 6 Gbits/second (Gbps) as HDDs use, the SSD itself can actually support a much speedier protocol than spinning disks. So addition to SATA, the primary SSD protocols are SAS and PCI Express (PCIe). The latter is typically used with either AHCI¹ or NVMe², a communications interface/protocol developed for SSDs by a group of leading drive vendors. Viewed by many as the future of SSD due to its very high speed, NVMe is also intended to lower data latency.

The most direct way to replace an HDD with an SSD is to stay with the SATA protocol.  When companies are looking to make a further upgrade in performance beyond SATA, the least costly approach is to use SAS – it fits the HDD infrastructure, enabling easy swap-out and low impact on infrastructure cost. With PCs, it’s an easy change to go from SATA to PCIe, while data centers will move either to SAS or NVMe, depending on what makes the most sense for the data quantity and access requirements involved. And legacy systems, of which quite a few remain, will continue to utilize SATA. Manufacturers need to look at what’s involved overall in making a change from one protocol to another.

The bottom line is that the three predominant SSD protocols will be in use for the foreseeable future. Because customer demands vary, SSD makers must be able to incorporate these different protocols into their products, and they need a test solution that can easily and cost-effectively handle them all.

Advantest has developed a flexible, scalable platform for protocol test – the MPT3000 – that can easily accommodate varying requirements in form factor, speed and performance. The MPT3000 platform’s advantages are designed to optimize multi-site system-level-test (SLT) of different protocols:

  • Multi-Protocol Flexibility – The MPT3000 uses FPGA-based test electronics, which allows users to download firmware to test SATA and then easily switch over to SAS or NVMe later on. The FPGA’s innate flexibility enables a quick change between solutions, requiring a firmware download that typically takes on the order of just 10 minutes.
  • Performance – The FPGA-based electronics provide tester-per-DUT architecture, combined with Advantest expertise is high speed signally in test environments results in full speed testing of the newer NVMe and SAS SSDs. For existing test solutions whose shared architecture was sufficient for 6G SATA testing, the disruptive higher performance of the SAS and NVMe protocols creates performance challenges that the MPT3000 handles without compromise.
  • Form factor flexibility – SSDs are replacing HDDs, which have a set form factor determined by the spinning disks. With SSD protocols, several form factors are being used (see Figure 2):
    • 2 – longtime 2.5-in. form factor still found in many PCs and laptops;
    • Add-in Card (AIC) – formally referred to as a PC Card, now used for enterprise drives in data centers; allows more content to be included and cools easily;
    • 2 – small, gum stick-sized SSD available in different lengths and versions with standard connector; fast and cable-free, M.2 is well suited for space-constrained setups.

mpt3000-2

Figure 2. Traditional 2.5-inch U.2 form factors are giving way to both smaller, more versatile approaches such as M.2 and larger, higher performance AIC (add-in-card) SSDs.

MPT3000 has interchangeable DUT interface boards (DIBs) to allow for quick form-factor changeovers based on customer demand, or other manufacturing flexibility such as the need for fast shipments, or to pursue new business opportunities. This flexibility maintains high utilization of test capacity, and together with the system’s high performance, enables users to slash test times, reducing the cost of test as well as their total test system ownership costs.

  • Global structure – The SSD market hasn’t had this requirement previously, but with its rapid growth in past the few years, global support has become a major concern for SSD manufacturers. Advantest has the expertise and resources to support worldwide deployments. Currently, MPT3000 is the only proven, full-ATE SSD tester on the market. Companies using internal systems can no longer support their own test platforms – in particular, when looking to make the shift from internal SATA systems to NVMe. This is a key inflection point for Advantest.

Advantest introduced the first incarnation of its protocol test system in 2014. The MPT3000ENV conducts performance and stress testing of PCIe NVMe, SAS 12G and SATA SSDs of all major form factors in a thermal chamber supporting up to 256 DUTs running at 25W each, or a total of 6.4kW DUT power dissipation. Its focus is on reliability demonstration testing (RDT), testing a small sample of devices over time to prove that they will last over the desired lifetime (based on number of drives tested, length of test time, temperature/environment, and other variables). Typically, a few hundred devices are run for 1,000 hours at high temperatures, which equals about 3 months of constant read/write operations.

Introduced along with the ENV model, the MPT3000ES engineering station uses the same high-performance electronics and software as the MPT3000ENV, but in a smaller footprint. Used to perform test program development, and device analysis and debugging, it can test up to eight SSDs in parallel, providing as many as eight lanes of 12-Gbps signaling.

mpt3000hvm_1286

The newest addition to Advantest’s protocol test offerings is the MPT3000HVM, introduced in August. With the first protocol test systems having been used to prove reliability and handle development and debugging, the next step was to provide high-volume functional test capability. The MPT3000HVM supports the same devices as the MPT3000ENV, but with upgrade electronics for twice the parallelism.  Driven by the throughput and cost considerations of volume manufacturing, the DUT-density per floor space of the HVM system is vastly greater than the chambered system, using new closed-loop ambient-air thermal control. The system can also perform asynchronous test – with its rack architecture rather the tray-based RDT system, devices can be plugged and unplugged one at a time as they needed for more efficient tester. And although current SSD volumes are still generally handled manually by operators, the system is automation ready in anticipation of volumes crossing the threshold where a robotic load/unload system becomes economically advantageous.

Advantest has proved its mettle in protocol test via the high-volume, cost-sensitive SSD market. We look forward to targeting future developments in SSD, as well as in further protocol test applications, with our single-platform, flexible, scalable and highly parallel test technology. And we look forward to updating you as those developments evolve.

Find out more.

Notes:

  1. AHCI – Advance Host Controller Interface
  2. NVMe – Non-Volatile Memory Express

 

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Analog and Power Integration: The Next Level of IoT Test Demands

Analog and Power Integration: The Next Level of IoT Test Demands

By Martin Fischer, Solution Product Manager, Advantest Europe

Next-generation system-on-chip (SoC) designs – many of which are needed for IoT applications – are driving development of a wide range of smart devices with increasingly integrated functionality such as analog sensing, mobile computing, wireless communications and high-efficiency power management. These smart devices contain more analog and power functions than ever before, enabling advances such as longer battery life for handheld mobile electronics and emerging automotive applications for smart and connected cars. At the same time, these devices present new challenges for test equipment.

Analog technology is found in every step of package integration – from single-function ICs to SoCs, completely integrated solutions are enabling further miniaturization, as well as new and higher accuracy and voltage levels (see Figure 1). The semiconductor industry is looking for solutions to achieve faster time to market and lower unit test costs. However, many ATE systems lack the capability to efficiently test all the multiple analog and power functionalities integrated into a single SoC.

Parallel test is key for more complex devices, and this requirement was a driving factor behind the creation of Advantest’s V93000 single scalable platform, with its test-processor-per-pin architecture and modular approach to channel module design. When equipped with the DC Scale AVI64 universal analog pin module, the V93000 can test both analog and digital circuits.  It can handle all smart devices – from low-pin-count ICs to complex, high-density SoCs – by combining power/analog test functions with full test coverage.

The general-purpose AVI64 (see Figure 2) features analog and high-voltage digital capabilities and is optimized for providing a true universal analog pin, covering a wide range of test application needs. An arbitrary waveform generator (AWG), digitizer, digital IO capabilities, and a time measurement unit (TMU) are available per channel. One floating high-current unit with a current of up to ±4 A, one high-resolution AWG, and one floating differential voltmeter are available per group of 8 channels.

The ability to fit 64 channels on one board enables a very high level of integration. When you need to test typical IoT devices, e.g., sensors and MEMS chips, having fewer boards in a tester with very high density allows you to test many devices in parallel – this in turn leads to both high multi-site and lower cost of test. The analog and digital signals of the devices under test (DUTs) are synchronized by the Domain Sync feature, enabling testing of any smart device.

The combination of the V93000 with the AVI64 has allowed Advantest’s customers to achieve industry-leading utilization by combining power/analog testing with full SoC test coverage. This future-ready approach will enable semiconductor manufacturers to address the full range of IoT applications – not only today’s smart devices, meters, homes and buildings, but also emerging smart cities… and whatever comes next.

 

iot

Figure 1. Increasingly integrated analog and power functionality are creating unique challenges for ATE.

avi64-2

Figure 2. Advantest’s DC Scale AVI64 universal analog pin module gives the V93000 platform the industry’s broadest capabilities for testing power and analog ICs used in mobile applications.

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Enabling High Throughput and Low Cost of Test for Analog Baseband Processors

By Mandy Davis, Business Development Manager, Advantest America

Analog baseband processors are communications workhorses. Digital processing streams must be manipulated into analog for amplitude, requiring they be encoded into a form suitable for transmission. The analog baseband processor tackles this encoding, converting the signal before it’s fed into a multiplexer that will place the baseband signal onto a relevant transmission channel.

Because they do so much heavy lifting, analog baseband processors require various types of function blocks. As chip integration has grown higher, so has the required performance for each block, e.g., processing speed of the microprocessor, bandwidth of the converters, etc. Some typical analog IP blocks include Transmit DACs (digital-to-analog converters), Receive ADCs (analog-to-digital converters), Audio DACs and Audio ADCs.

The Wave Scale Mixed-Signal High-Speed (WSMX HS) card, designed for use with the V93000 test platform, is Advantest’s next-generation analog card. Developed to address the requirements of these high-performance devices, the card contains both digitizers and arbitrary waveform generators (AWGs). It’s optimized for the latest baseband modulation schemes and is ready for 4G and 5G communication standards. To provide even more flexibility, WSMX can be used in combination with Advantest’s Wave Scale RF (WSRF) card, digital card, and Device Power Supply (DPS) card to address a broad range of applications, including RF, baseband processors and high-speed DACs and ADCs (see Figure 1).

wavescale-mx

The WSMX card uses the same type of per-pin architecture as the company’s other V93000 channel cards. None of the resources are shared, and all instruments are controlled in parallel and independently by the test processor, enabling faster test times. With 16 units per card that can be used as an AWG or digitizer, WSMX provides up to 32 instruments in a single card. This high density allows for increased multi-site test without requiring more cards to be added – in turn, contributing to lower test costs. Moreover, the card is scalable and licensable for as few as four units or as many as 16; therefore, the user doesn’t need to pay for all of the units if not all are required.

Measurement parameters for the WSMX card are among the best available in the industry, including a sample rate of 500 Megasamples per second (Msps) and bandwidth of up to 200MHz for the AWG, and a sample rate of 250Msps and bandwidth up to 300MHz for the digitizer. The WSMX card also includes a parametric measurement unit (PMU) per pin, for a total of 64 PMUs per card. With its per-pin PMU of ±3mV voltage accuracy and ±20nA current accuracy, the WSMX card provides all the performance necessary for DC measurements. It also includes a built-in flexible I/O matrix, so all functionality is available behind every pogo – each pin can operate as a PMU, AWG, or digitizer.

To summarize, the Wave Scale MX card tests analog baseband interfaces and high-speed DACs and ADCs, utilizing:

  • 32 full independent instruments for true parallel mixed-signal test
  • Test processor-controlled functionality
  • Precise synchronization with all other resources in the tester
  • Very high density with uncompromised mixed-signal test in the smallest infrastructure

As a result, WSMX delivers very high throughput and low test costs, while providing the high performance essential to analog/mixed-signal applications and high degree of scalability and flexibility for which the V93000 test platform is known.

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Posted in Q&A

Spotlight on W2BI: Out of the Lab and into the Field: Making IoT Device Testing Portable

Interview with Artun Kutchuk

W2BI, Inc., an Advantest Group company, is a leading developer of wireless device test automation products designed to improve quality and time-to-market for customers’ advanced mobile devices. GO SEMI & BEYOND sat down with W2BI Vice President of Business Development and Strategy, Artun Kutchuk, to talk about the wireless market’s testing needs, why testing Internet of Things (IoT) devices is a different animal with unique testing requirements, and W2BI’s pioneering new approach to testing in the age of IoT.

Q. What are the testing needs for the wireless market in the next five years?

A. The market will undergo rapid change over the next 24 months, let alone the next five years. We will see a move toward connected and aware test environments leveraging both software-as-a-service (SaaS) and platform-as-a-service (PaaS) models. The pace of testing, communication, and information sharing will speed significantly as the types of information that can be shared between R&D and production line systems increase. Future systems will benefit greatly by sharing information with each other – at the chip level, during design and R&D, certification, and returns.

IoT devices have very important test needs: IoT communication modules that power temperature sensors, agricultural sensors, video systems, control systems, biometrics, and the like. As these are deployed in higher volume and defects appear once they’re embedded, it becomes very difficult and costly to pull them out of their environment. The ability to trace pass/fail from silicon all the way to field deployment will require information sharing across test systems, and we’ll start to see further connection both within and between systems to simplify sharing different types of data.

The industry is now in a great position to leverage major advances in the cloud and bring previously disconnected test environments into the connected world. To achieve this, we needed to establish a new product category of connected portable test systems that will replace disconnected test systems for IoT test.

Q. Why do W2BI’s history and skill set position it well to provide test and measurement solutions for the IoT space?

We have a long history in mobile test – handsets, mobile phones, and similar products popular within the last five to ten years in the consumer space. While all of these are now mature industries, our expertise gives us a platform for moving forward in IoT. We perform both feature- and functional-based test, and we have strong expertise all the way through final assembled test. This allows controlling the device under test (DUT) and putting it under many different test scenarios – using an automated approach – to enable fast, thorough testing. Our customer base also positions us well in the IoT market. We provide solutions to top mobile operators, who approve new devices to go on the network. We also build and deliver systems to OEMs, a number of whom utilize them well for a range of applications.

Q. What is your MicroLTE solution, and why is it uniquely suited to address the IoT test market?

A. In the mobile world, an IoT device is purpose-built for specific functions and could have many different communication bearers.  It’s a very different type of device from a tablet or a smartphone – in cost structure, in usability, and in what you have to test on it. The industry needs a test system that can exercise the needs and requirements of an IoT device as well as the development and test cycles that support commercialization.  Our portable MicroLTE solution achieves several things:

  1. Lowers the cost of test. With large-scale economics, you could have one traditional handset provider buy a test system, and then use it to manufacture millions of smartphones. The IoT market has many more manufacturers and is typically much more purpose-built in final use scenarios. These devices are coming to market in large overall volumes, but smaller model volumes and a different cost structure – requiring a different, more flexible approach.
  2. Allows for a different business model. While traditional test equipment typically employs a capital expenditure (CapEx) model, MicroLTE also allows for an operating expenses (OpEx) model. In the IoT space, your testing needs can change rapidly, so instead of acquiring the system on a CapEx basis, you acquire it through a SaaS/PaaS-type subscription, use it for as long as your program needs, and then provide it back to us. We have built a SaaS/PaaS-based cloud system to allow for this approach.
  3. Delivers test portability. The bench test equipment used in mobile feature and functional test is typically big and heavy, and once it’s installed, you really can’t move it with ease. With MicroLTE, we’ve shrunk the test equipment down to fit into the size of a backpack. This makes it easy to transport between sites and use in unique ways and environments. To create this small footprint, we’ve pulled as much functionality as we can off the equipment and put onto a Microsoft Surface Pro 4 laptop with a touchscreen – it’s very small and simple to use and allows the MicroLTE system to provide a rich and functionally complete LTE system, with eNB, IMS, and EPC. 1 Together, these create a rich, portable LTE test lab that’s very easy to learn and use in any environment.
  4. Managed via the cloud. As soon as the MicroLTE equipment comes online, you can manage it remotely via the MicroLTE Cloud Hub built with security and scale via Microsoft Azure. Traditional test systems today are physically disconnected and only physically secured within the facility. With MicroLTE, you can engage the test system with a strong balance of usability, access, and security. The test user can share data in a controlled and managed way to supporting organizations or enterprises, speeding up the R&D and test cycle to allow for a faster time to market.

This system is uniquely suited to IoT because in the IoT world many of the devices have limited human interfaces, e.g., power meters, temperature controls, irrigation controls, parking meters, etc. Thus, automating the DUT is critical, allowing for as little user interaction as possible with the test environment  – consequently optimizing test automation and speeding the test process. We have an extensive background in device automation and take this to the next level with MicroLTE.

Q. What is W2BI’s cloud vision for the future of IoT and assembled device testing?

A. We wanted to solve a couple of problems. First, as we all know, IoT is fragmented, with billions of devices projected by 2020. We needed to build a system that could provide as much test coverage as possible throughout the product’s lifecycle. Second, we wanted to provide a platform for detailed test data to be communicated to different R&D environments, allowing teams to share information easily and quickly for debug, pass/fail, etc. The cloud is the key to providing new and updated test coverage to many systems in a scalable manner, and for bringing together test data from many geographically separated systems. It allows systems to be securely deployed locally or distributed in multiple global regions. Test data is very sensitive, and a cloud-based system lets the enterprise own its own data and manage security consistent with their policies. One customer we are working with has said this cloud design is by far the most secure test system they have seen.

Q. What type of partners is W2BI seeking to extend MicroLTE to the next version?

A. Our first goal was to partner closely with mobile operators, chip/module makers and OEMs. We selected a group of key chip/module makers for the first round of product trials, and it has gone very well. We have just moved from the first phase of development and commercialization to general availability.

For the next phase, we want to focus on the scale of the system for broad deployment and management, so we’re looking at test partners, test labs, companies in the traditional IT space. This will be determined over the next quarter.

We’re enormously excited about this product – it will serve as a complement to Advantest’s production line ATE products while establishing a unique new model for IoT test.

 [1]

eNB = Evolved NodeB base station for LTE radio

IMS = IP Multimedia Subsystem

EPC = Evolved Packet Core LTE architecture

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