永久免费在线播放-永久免费在线-永久免费影院-永久免费视频网站-久久久久国产成人精品亚洲午夜-久久久久国产成人精品

leantp.com

Automotive engineering


機器學習融入芯片設計 2017-03-29


Consider the vast amount of design data and variability required of chip designers, especially when developing a variety of chips with different power, temperature and performance specs. Complex IC designs might well be one of the logical areas to apply machine learning.

[**]t least one ED[**] software company is making headway with home-grown machine-learning algorithms — calling it “machine learning for engineering” and applying it to variation-aware design and characterization software.

That company is Solido Design [**]utomation, a privately-held ED[**] software vendor founded in 2005 in Saskatoon, Canada.?

Solido has just become the first vendor to make commercially available its machine-learning algorithms to semiconductor customers, by launching Machine Learning (ML) Labs. Solido’s plan is to “collaboratively work with semiconductor companies to develop new ML-based ED[**] products,” according to the company.

President and CEO [**]mit Gupta told us, “We’d like to cast a wider net,” to work with more customers to explore, select and apply best ML technologies to solve specific problems.


12 years in Machine Learning


?Solido is neither neophyte nor imitator when it comes to machine learning. Gupta explained that his company has been working on machine-learning algorithms for12 years, applying the technology to its flagship product.

Solido is confident of its technical chops. Its machine-learning technologies have been tested, proven in the company’s own commercial product (“Variation Designer,” launched in 2007), and backed by real-world users (1,000 designers and 35 major companies worldwide). Solido, says Gupta, already has seven lead customers committed to working at ML Labs and eager to put Solido’s expertise to use in other areas of ED[**].

While declining to name names, Gupta indicated that Solido’s key clients range from a foundry to IDMs and fabless chip companies.

?

Why ML Labs? (Source: Solido Design [**]utomation)
Why ML Labs? (Source: Solido Design [**]utomation)

?

?

?

The idea of machine learning coming to chip design should come as no surprise, especially in the semiconductor industry. Major companies in the semiconductor ecosystem, foundries and ED[**] companies included, have been quietly investigating how best to apply machine learning to complex chip designs, development and testing to increase the efficiency and accuracy of both design and production.

Laurie Balch, chief analyst at Gary Smith ED[**], acknowledged, “ED[**] tool companies are dabbling in [machine learning].” But she added, “I wouldn’t say they are doing it in such a vast way [throughout the ED[**] tool chain]. [**]t least not yet.”

Partly, machine learning poses a tricky problem for ED[**] companies because they must deal with complex design data in vast variety. “To come up with good rules that produce repeatable results is a thorny issue,” said Balch.


Industry momentum


?Nonetheless, the idea of tapping artificial intelligence to improve design is picking up momentum.

Elyse Rosenbaum, director of the Center for [**]dvanced Electronics through Machine Learning (C[**]EML), told EE Times earlier this year that C[**]EML’s [**]I project for electronics design has gained backing from the National Science Foundation and nine companies including [**]nalog Devices, Cadence, Cisco, Hewlett-Packard Enterprise (HPE), IBM, Nvidia, Qualcomm, Samsung, and Xilinx.

Reached by EE Times and asked if C[**]EML is aware of Solido, Paul Franzon, professor of electrical and computer engineering at North Carolina State University, told us, “We know some of what our member companies are doing but Solido is not a member so we have not been tracking them at this point.”

Looking at Solido’s website, however, Franzon suspected what Solido does is “statistical in nature.” In his opinion, “Statistical analysis of ‘big data’ is a branch of machine learning that is fast growing in ED[**], and there are many opportunities there.”

In contrast, he noted, C[**]EML’s main research focus has been in “building global models fitted to ‘training’ data produced by evaluation of the detailed model, or measurement of the detailed structure. These fast global models can then be used in design to get better designs faster.”

Solido’s Gupta, asked about C[**]EML’s efforts, said, “It’s great to see early ML research in ED[**] with an organization such as the C[**]EML.”

But he stressed that ML techniques are already starting to disrupt the ED[**] industry. “[**]t Solido ML Labs, we are directly collaborating with lead customers to quickly develop and productize advanced Machine Learning products for ED[**]. We are leveraging the dozen years of proprietary and generally available ML R&D we applied to our products.”

Perhaps a better way to explain Solido’s ML efforts, compared to others, is that its software [i.e. Variation Designer] is much closer to manufacturing. [**]s Gary Smith ED[**]’s Balch explained, “The focus of Solido’s software is on the implementation of designs, or getting their designs ready for production, in order to achieve higher accuracy and better yields.”


How it works


?Solido’s key goals for its proprietary ML algorithms, Gupta explained, are threefold. They must result in “not estimation, but production accurate” products, they are “verifiable” and they offer “adaptive model building that is constantly improving.”

Obviously, they also need to be scalable. “When every transistor has eight to 10 process variables, we are talking about machine learning technologies that must scale to 100K+ input variables” to design a chip with 10k transistors, he added.

But how exactly do Solido’s ML technologies apply to the ED[**] flow??

First, users create specs for their own chips, and their variable input is fed into Solido’s ML algorithm. The SPICE simulator, driven by the ML algorithm, builds a model, which then predicts results.?

This whole process is not done in a black box, stressed Gupta. Instead, the software offers a dashboard-like user interface, allowing designers to see and verify what it’s doing in real time.?

If the system doesn’t see enough data to build a credible model, it will ask designers for more data. Designers might also switch to another software. But the idea is that the system is designed to build an adaptive model that self-verifies and corrects errors.

Without good tools, many chip designers tend to “over-design” or “under-design” chips, said Gupta. Or, they spend long hours “measuring variabilities and doing simulations.” To accelerate the process, designers can now resort to ML technologies. [**]ccording to Solido, with its Variation Designer, designers can “reduce High-Sigma Monte Carlo from 5,000,000,000 simulations to 3,000 simulations.”

Speed isn’t the only objective. “Semiconductor designers are making very expensive decisions. Cost of making errors is very high,” ?said Gupta. This makes it absolutely critical for ML-enabled software to generate “production-accurate results,” he added.

Separately, Solido announced?Thursday?the release of its machine-learning characterization suite. The company said that the new product uses ML “to significantly reduce standard cell, memory, and I/O characterization time, helping semiconductor designers meet aggressive production schedules.”

The predictor that comes with Solido’s characterization suite can generate production-accurate library models at new corners, according to the company. It “reduces library characterization time by 30-70 percent,” which translates into savings on characterization licenses, simulation licenses, CPUs, disk and time, the company explained.


More work to do


?It’s important to remember that the ED[**] community is a collection of niche players, noted Gary Smith ED[**]’s Balch, with each vendor attacking specific issues with specialized tools.

In a way, Solido is also a niche player working in specialized areas. Balch said this doesn’t detract from the fact that Solido is playing a key role with its own ED[**] piece. In her opinion, applying machine learning to chip designs in the ED[**] chain has barely begun.?

[**]sked about the toughest areas — in chip designs — to apply ML algorithms, North Carolina State’s Franzon explained, “It’s not so much that certain problems can't be cast this way [machine learning], but some are more difficult than others by their nature.”?

He cited a few examples. One is “problems with too many dimensions,” he said.?“Problems with 20+ dimensions are difficult to ‘fit’ or ‘train’ as you need too much data.? We are investigating divide and conquer techniques to tackle these.”

[**]nother is "Noisy data.”? Franzon noted, “Some detailed models are ‘noisy,’ such as the same evaluation produces different results.? We plan to look into ways to cope with this.”

Franzon also noted “difficulty producing the training set.”?He explained, “Fitting a model requires hundreds of evaluation of the detailed model.?Sometimes it’s hard to generate such a training data set.”

Meanwhile, Solido’s Gupta is hoping that his team's ML technologies will be recognized as tools on which design engineers can bet their high-stakes chip designs.

?

?




主站蜘蛛池模板: CHINA末成年VIDEO学生 | 和I儿媳妇激情 | 风流少妇BBWBBW69视频 | 亚洲视频免费观看 | 拔萝卜视频免费看高清 | 亚洲欧美中文字幕5发布 | 午夜向日葵高清在线观看 | 成年免费大片黄在线观看岛国 | 出租屋自拍贵在真实15P | 黄色a三级三级三级免费看 黄色a三级免费看 | 久久精品无码成人国产毛 | 国产精品国产三级国AV在线观看 | 青青在线视版在线播放 | 精品久久久亚洲精品中文字幕 | 欧美高清videos 360p | 在线免费中文字幕 | 国内精品乱码卡一卡2卡三卡新区 | 99热这里只有精品9 99热这里只有精品88 | 欧美日韩国产高清综合二区 | 宅男午夜大片又黄又爽大片 | 久久精品视频在线看15 | 体内精69xxxxxx喷潮 | 国产高清在线观看视频 | 亚洲福利网站 | 国产成人无码精品久久久影院 | 久久亚洲精选 | 九九九精品国产在线 | 野花高清在线观看免费3中文 | 久久久久影视 | 国精产品一区二区三区有限公司 | 国产色精品久久人妻无码看片软件 | 国产精品久久久久久久人人看 | 青春草久久| 亚洲伦理精品久久 | 久久精品无码成人国产毛 | 办公室的秘密2中文字幕 | 亚洲国产在线播放在线 | 国产AV精品无码免费看 | 欧美大jiji | 高h原耽肉汁动漫视频 | 麻豆国产人妻欲求不满 |