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Tuesday, August 21, 2018

What algorithmic art can teach us about artificial intelligence

Prints made by Tom White appear to humans as meaningless blobs, but to AI algorithms they look like specific objects and items. 
Photo: Ramesh Pathania
We live in a world that’s increasingly controlled by what might be called “the algorithmic gaze.” As we cede more decision-making power to machines in domains like health care, transportation, and security, the world as seen by computers becomes the dominant reality. If a facial recognition system doesn’t recognize the color of your skin, for example, it won’t acknowledge your existence. If a self-driving car can’t see you walk across the road, it’ll drive right through you. That’s the algorithmic gaze in action.
This sort of slow-burning structural change can be difficult to comprehend. But as is so often the case with societal shifts, artists are leaping headfirst into the epistemological fray. One of the best of these is Tom White, a lecturer in computational design at the University of Wellington in New Zealand whose art depicts the world, not as humans see it, but as algorithms do.
White started making this kind of artwork in late 2017 with a series of prints called “The Treachery of ImageNet.” The name combines the title of René Magritte’s famous painting of a pipe that isn’t a pipe, and ImageNet, a database of pictures that’s used across the industry to train and test machine vision algorithms. “It seemed like a natural parallel for me,” White tells The Verge. “Plus, I can’t resist a pun.”
To humans, the pictures look like haphazard arrangements of lines and blobs that lack any obvious immediate structure. But to algorithms trained to see the world on our behalf, they leap off the page as specific objects: electric fans, sewing machines, and lawnmowers. The prints are optical illusions, but only computers can see the hidden image.
White’s work has attracted a lot of attention in the machine learning community, and it’s getting its first major gallery show this month as part of an exhibition of AI artwork in India at Delhi’s Nature Morte gallery. White says he designs his prints to “see the world through the eyes of a machine” and make “a voice for the machine to speak in.”
That “voice” is actually a series of algorithms that White has dubbed his “Perception Engines.” They take the data that machine vision algorithms are trained on — databases of thousands of pictures of objects — and distill it into abstract shapes. These shapes are then fed back into the same algorithms to see if they’re recognized. If not, the image is tweaked and sent back, again and again, until it is. It’s a trial and error process that essentially ends up reverse-engineering the algorithm’s understanding of the world.
White compares the process to a “computational ouija board,” where neural networks “simultaneously nudge and push a drawing toward the objective.” He tells The Verge that this method gives him the control he wants out of the output, though it can take days to create a single image in this way, and he admits that the process is “kind of tedious.”
Unlike some artists who work with machine learning, White doesn’t pretend that his prints are the product of a some autonomous AI (a disingenuous narrative sometimes pushed by artists and promoters in order to create a feeling of technological mysticism). Instead, he’s up front about his role: he sets a number of starting parameters for his perception engines, like the colors and thickness of lines, and winnows the output, rejecting prints that he doesn’t find aesthetically pleasing. Although he is giving his algorithms a voice to speak in, he’s also making sure the results are pleasant to hear. “I think I am trying to free the algorithm so it can express itself, so people can relate to what it’s saying,” he says.
And what is it saying? Well, as with any art, different people hear different things.
Some see the imagery made by White and his peers as a bad omen, another sign that artificial intelligence is not only getting smarter but beginning to think creatively and take on roles reserved for humans. Karthik Kalyanaraman, one half of the curation team responsible for the Nature Morte exhibition, tells The Verge by email that he arranged the show to draw attention to the “inevitable” questions we face about the future of humanity. “Once so much of our labor (manual, mental, emotional, artistic) is replaced by machines, what is left for us to do?” he asks. “How will we define ourselves?”
Kalyanaraman suggests that art made with AI demonstrates that computers may deserve credit as creative actors. The type of machine learning used by White and his peers works by sifting through large amounts of data and then replicating the patterns it finds. Kalyanaraman suggests that this is similar to the process by which humans learn art, but that our “mysticism” surrounding the notion of creativity stops us from seeing the parallels. “If a machine can make humanly surprising, stylistically new kinds of art, I think it is foolish to say well it’s not really creative because it doesn’t have consciousness,” he says.
Others frame the question in more ruthless economic terms. Writing for contemporary art magazine frieze, Mike Pepi suggests the promotion of AI creativity is essentially propaganda for corporate interests. Pepi says that despite “utopian prognostication,” the development of artificial intelligence is ultimately about replacing human labor, including white-collar jobs that need creative abilities. Says Pepi: “If machine intelligence can conquer this uniquely human realm, the march to artificial general intelligence must be nigh, and the profits unimaginable.”
White stood next to his prints (including the cello, in orange) at the Nature Morte gallery. 
Photo: Ramesh Pathania
White says his motivation is primarily to deconstruct what we think of as machine perception. In other words: to explain the algorithmic gaze. Take the example of the cello print in White’s series “The Treachery of ImageNet.” If you know what you’re looking for, you can see shapes that represent the instrument (a cluster of straight parallel lines bracketed by curves). But there’s also a confusing shape looming behind it. White says these shapes are there because the algorithms were trained using pictures of cellos with cellists holding them. Because the algorithm has no prior knowledge of the world — no understanding of what an instrument is or any concept of music or performance — it naturally grouped the two together. After all, that’s what it’s been asked to do: learn what’s in the picture.
This sort of mistake is common in machine learning, and it demonstrates a number of important lessons. It shows how critical training data is: give an AI system the wrong data to learn from, and it’ll learn the wrong thing. It also demonstrates that no matter how “clever” these systems seem, they possess a brittle intelligence that only understands a slice of the world — and even that, imperfectly. White’s latest prints for the Nature Morte gallery, for example, are abstract smears of color designed to be flagged as “inappropriate content” by Google’s algorithms. The same algorithms used to filter what humans see around the world.
Still, White says that he doesn’t see his artwork as a warning. “I’m just trying to present the algorithms as they are,” he says. “But I admit it’s sometimes alarming that these machines we’re relying on have such a different take on how objects in the world are grounded.”
And despite the error-prone nature of algorithmic gaze, it can also do very beneficial things. Machine vision could make the world a safer place by steering cars safely on roads or save lives by speeding up medical diagnoses. But if we really want to use this technology for good, we need to understand it better. Looking at the world through an algorithm’s eyes might be the first step.

AI chips for big data and machine learning: GPUs, FPGAs, and hard choices in the cloud and on-premise

Applications and infrastructure evolve in lock-step. That point has been amply made, and since this is the AI regeneration era, infrastructure is both enabling AI applications to make sense of the world and evolving to better serve their needs.
As things usually go, the new infrastructure stack to power AI applications has been envisioned and given a name -- Infrastructure 3.0 -- before it is fully fledged. We set off to explore both the obvious, here and now, and the less obvious, visionary parts of this stack.
In order to keep things manageable, we will limit ourselves to "specialized hardware with many computing cores and high bandwidth memory" and call it AI chips for short. We take a look at how these AI chips can benefit data-centric tasks, both in terms of operational databases and analytics as well as machine learning (ML).
Let us commence on the first part of this journey with the low-hanging fruit: GPUs and FPGAs.
In order to keep things manageable, we will limit ourselves to "specialized hardware with many computing cores and high bandwidth memory" and call it AI chips for short. We take a look at how these AI chips can benefit data-centric tasks, both in terms of operational databases and analytics as well as machine learning (ML).
Let us commence on the first part of this journey with the low-hanging fruit: GPUs and FPGAs.

GPUs

Graphical Processing Units (GPUs) have been around for a while. Initially designed to serve the need for fast rendering, mainly for the gaming industry, the architecture of GPUs has proven a good match for machine learning.
Essentially GPUs leverage parallelism. This is something CPUs can do as well, but as opposed to general-purpose CPUs, the specialized nature of GPUs has enabled them to continue to evolve at a pace that keeps up with Moore's law. Nvidia, the dominant player in the GPU scene, recently announced a new set of GPUs based on an architecture called Turing.
Lest we forget, the new Nvidia GPUs actually bring improvements for graphics rendering. But, more importantly for our purposes, they pack Tensor Cores, the company's specialized architecture for machine learning, and introduces NGX. NGX is a technology which, as Nvidia puts it, brings AI into the graphics pipelines: "NGX technology brings capabilities such as taking a standard camera feed and creating super slow motion like you'd get from a $100,000+ specialized camera."
That may not be all that exciting if you are interested in general-purpose ML, but the capabilities of the new Nvidia cards sure are. Its prices, however, definitely reflect their high-end nature, ranging from US$2.5K to $10K.
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GPUs can greatly accelerate workloads that can be broken down in parts to be executed in parallel, working in tandem with CPUs. Image: SQream.
But it takes more than a hardware architecture to leverage GPUs -- it also takes software. And this is where things have gone right for Nvidia, and wrong for the competition, such as AMD. The reason Nvidia is so far ahead in the use of GPUs for machine learning applications lies in the libraries (CUDA and cuDNN) needed to use GPUs.
Although there is an alternative software layer that can work with AMD GPUs, called OpenCL, maturity and support for it are not at par with Nvidia's libraries at this point. AMD is trying to catch up, and it also competes on the hardware front, but there is a bigger point to be made here.
In order to benefit from AI chips, the investment required goes beyond the hardware. A software layer that sits on top of these chips to optimize code running on them is required. Without it, they are practically unusable. But learning how to make use of this layer is also needed.
We already mentioned how GPUs are currently the AI chip of choice for ML workloads. Most popular ML libraries support GPUs -- Caffe, CNTK, DeepLearning4j, H2O, MXnet, PyTorch, SciKit, and TensorFlow to name just a few. In addition to learning the specifics of each library, building it for GPU environments is often needed too.
As for plain-old data operations and analytics -- one word: GPU databases. A new class of databases systems have been developed with the goal of utilizing GPU parallelism under the hood to bring the benefits of off-the-shelf hardware to mainstream application development. Some of the options in this space are BlazingDB, Brytlyt, Kinetica, MapD, PG-Strom, and SQream.

FPGAs

Field Programmable Gate Arrays (FPGAs) are not really new either -- they have been around since the 80s. The main idea behind them is that, as opposed to other chips, they can be reconfigured on demand. You may wonder how is this possible, how does this make them specialized, and what are they good for.
FPGAs can be simplistically thought of as boards containing low-level chip fundamentals, such as AND and OR gates. FPGA configuration is typically specified using a hardware description language (HDL). Using this HDL the fundamentals can be configured in a way that matches the requirements of specific tasks or applications, in essence mimicking application-specific integrated circuits (ASICs).
Having to reprogram your chips via HDL for every different application sounds complex. So again, the software layer is crucial. According to Jim McGregor, principal analyst with Tirias Research, "the toolset to build FPGAs is still ancient. Nvidia has done well with the CUDA language to leverage GPUs. With FPGA it's still kind of a black art to build an algorithm efficiently."
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Intel is throwing its weight behind FPGAs, possibly as a way to make up for having being left behind in GPUs. But the FPGA software layer is yet not as mature as that of GPUs. Image: Intel
But that may be changing. Originally it was Intel who showed interest in FPGAs, acquiring Altera, one of the key FPGA manufacturers. It is possible that this is Intel's way of pushing into the AI chips world, which will be increasingly important, after having been left behind in the GPU battle. But, complexity aside, can FPGAs compete?
Intel recently published research evaluating emerging deep learning (DL) algorithms on two generations of Intel FPGAs (Intel Arria10 and Intel Stratix 10) against the NVIDIA Titan X Pascal GPU. The gist of this research was that Intel Stratix 10 FPGA outperforms the GPU when using pruned or compact data types versus full 32 bit floating point data (FP32).
What this means in plain english is that Intel's FPGAs could compete with GPUs, as long as low precision data types are used. This may sound bad, but it is actually an emerging trend in DL. The rationale is to simplify calculations, while maintaining comparable accuracy.
That may well mean that there is a bright future in using FPGAs for ML. Today, however, things do not look that bright. In verification of McGregor's statement, there does not seem to be a single ML library that supports FPGAs out of the box. There is work under way to make using FPGAs possible with TensorFlow, but precious little else besides that.
Things are different when it comes to data operations and analytics however. Recently Intel presented some of the partners it works with for FPGA-accelerated analytics. Swarm64 looks like the most interesting among them, promising immediate speedup of up to 12 times for PostgreSQL, MariaDB, and MySQL. Other options are rENIAC, offering what it says is a times-13 accelerated version of Cassandra, and Algo-Logic, with its custom key-value store.

Hard choices, in the cloud and on-premise

As usual, there is an array of hard choices to be made with emerging technology, and hardware is no exception. Should you build your own infrastructure, or use the cloud? Should you wait until offerings become more mature, or jump onboard now and reap the early adopter benefits? Should you go for GPUs, or FPGAs? And then, which GPU or FPGA vendor?
When discussing GPU databases with fellow ZDNet contributor and analyst Tony Baer, for example, Baer opined that none of them have a future on their own. That is because, according to Baer, the economics of GPUs are such that only cloud providers will be able to accumulate them at scale, therefore GPU database vendors will be eventual targets for acquisition by cloud-based databases.
In fact, one such acquisition, that of Blazegraph by AWS, has already transpired. But while that does make sense, it's not the only plausible scenario. If we're talking about acquisitions, it's entirely possible that GPU databases could be acquired by non-cloud database vendors who will want to bring such capabilities to their products.
It is also possible that some GPU database vendors will come into their own. GPU databases may seem less mature compared to incumbents now, but the same could be said for many NoSQL solutions 10 years ago. GPU databases seem like a tempting option for everyday operations and analytics, although the question remains as to whether the cost of replacing existing systems is outweighed by the gains in performance.
Swarm64 and rENIAC, on the other hand, are FPGA offerings that promise to leave your existing infrastructure as untouched as possible, especially in the case of Swarm64. Although their maturity remains an open question, the idea of "simply" adding hardware to your existing database and getting a much better performance out of it sounds promising.
As far as the GPU versus FPGA question is concerned, GPUs seem to have a wider and more mature ecosystem, but FPGAs offer superior flexibility. It has also been suggested that FPGAs may offer a better performance/consumption ratio, and that going forward GPUs may have trouble keeping up with low precision data types, as they would have to redesign extensively to support this.
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Which one works best for you - GPUs or FPGAs? Cloud, or on premise?
ktsimage, Getty Images/iStockphoto
In terms of what GPU or FPGA vendor to choose, the options are intertwined with the cloud or on premise question. GPUs are on offer on AWS, Azure, Google Cloud, all of which use Nvidia for their GPU-enabled instances. FPGAs, on the other hand, are on offer on AWS (EC2 F1 powered by Xilinx) and Azure (Project Brainwave powered by Intel), but not on Google Cloud.
AWS does not seem to provide ML-specific facilities for F1. Microsoft lets users deploy trained ML models, but there is not much information on how to train such models on FPGA-powered instances. Google, for its part, is throwing its weight behind its custom TPU chips.


For the million dollar question -- should you go cloud or build your own infrastructure -- the answer may be not that different from what applies in general: it depends.
If you use your infrastructure enough, perhaps it would make sense to invest in buying and installing, but for occasional use the cloud seems like a better fit. For other cases it might as well be mix-and-match.
Of course, we have not covered all options -- these are neither the only clouds, nor the only AI chips in town. This is a nascent area with many emerging players, and we will be revisiting it soon.

This smart bandage can help diagnose and treat your injuries

If you were to compare the medicine of ancient Greece with healthcare today, you could name plenty of differences: vaccinations, empirically-tested medicines, and we don't think that an imbalance of humours is the root of most illnesses. But look closer, and you'll see that some things haven't changed despite all the centuries that separate us.
Bandages, for example. If you found yourself on the receiving end of a Spartan soldier's spear in ancient Greece, you'd have a strip of cloth wrapped around your wound. Find yourself with a chronic wound today and, chances are, you'll get very similar treatment. The principle of the bandage -- a barrier that stops dust, dirt and other environmental nasties from getting into a wound -- has remained the same for somewhere over 2,500 years.
Finally, however, the bandage is getting its own high-tech makeover.
Researchers at Massachusetts' Tufts University have been working on a prototype smart bandage that can not only keep track of how well a wound is healing, but also deliver drugs directly into the site of the injury only when they're needed.
The bandage is the culmination of over six years' work between Tufts and other higher education institutions to create a bandage that includes sensors to monitor a number of markers showing that show how well, or otherwise, a wound is healing, alongside a drug delivery mechanism - all in a form factor that's flexible enough to be wrapped around a wound.
"Chronic wounds are a very biologically complex system, and you have to have the bandage interface in very close contact with the wound so you can monitor whether the wound is healing. At the same time, we wanted to find out if there was a way to intervene at the right time to accelerate wound healing," Sameer Sonkusale, professor of electrical and computer engineering at Tufts University's School of Engineering, told ZDNet.
The bandage is a combination of a cloth layer and an electronics layer. The electronics layer includes sensors that track the pH and temperature of the wound -- a higher than normal pH or temperature indicates it's not healing well. Oxygenation sensors could also be used within the bandage -- oxygenation levels can be used to track a wound through its various stages of healing, with lower levels suggesting impaired recovery.
The Tufts engineers have designed the bandage to be a closed loop. Once it detects slow wound healing or signs of inflammation or infection, it can drop drugs into the wound by means of a thermoresponsive system: a microprocessor within the bandage monitors pH and temperature levels and, if they go too high, a drug-carrying gel within the bandage is heated up. The warmed-up particles containing the drug shrink, releasing their medication into the wound.
"I like to call it precision diagnostics -- you're not providing the same drug treatment regimen to every person, because every person is different and their wound healing may respond differently to different drugs. It's important we monitor how the wound is healing and only then deliver drugs on demand," Sonkusale said.
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Image: Tufts University
Monitoring of the wound doesn't just stay within the bandage -- data can potentially be sent out to a phone, either to keep the patient or doctor informed, or to a clinical application, where aggregated data could be used for research purposes to help refine treatment algorithms. "There is definitely value in gathering the data from all kinds of wounds and hopefully that will improve chronic wound treatment in the future. There's definitely the potential for that when we have all types of wound fitted up with these kinds of smart bandages," Sonkusale said.
The bandage is 3mm thick, and as its electronics components are almost all flexible, enabling it to be wrapped around the site of injury just as a normal cloth bandage would.
The bandage "required a bit of engineering from the ground up, because most of the time, sensors or drug delivery systems are in some way tied to a hard substrate, like a capsule or a syringe, or a silicon or glass substrate... When we designed these platforms we were mindful of the fact that anything that is in contact with the wound should be really flexible and biocompatible with the wound," Sonkusale said. The microprocessor, which is not yet flexible, sits to one side of the wound so as not to disturb it. However, once a flexible version of the microprocessor has been developed, it can be more fully incorporated into the bandage.
To keep potential costs down, the cloth and electronics layers can be pulled apart; the former can be disposed of, the latter reused.
While the bandage potentially has applications across all types of wounds -- from acute burns to bed sores -- there are certain categories where the bandage may be particularly useful.
Take diabetes, for example: apart from trauma such as accidents, the condition is the commonest cause of an amputated limb. Diabetes causes what's known as peripheral neuropathy, where the nerves to the limbs die off. Without full sensation in their extremities, for example, a diabetic may injure their foot and be unaware of the wound. Eventually that injury can develop into an ulcer, and if it doesn't close properly, it can become infected, gangrenous and potentially the foot may need to be amputated.
"If you can have a smart bandage that keeps the wound in the optimum condition by delivering for example antibiotics or antimicrobials or even oxygen, the chances of having the wound getting infected and amputation is much, much lower," Sonkusale said.
Having lab-tested the bandages using tissue culture, the Tufts engineers are now looking to begin clinical trials and find partners that could help take the smart bandage to commercialisation. Sonkusale believes bandages with monitoring capabilities alone could be available within one to two years, while monitoring-and-treating versions could be in use five to eight years from now.
Researchers across the world are also working on various types of smart bandages: a team from the University of Nebraska-Lincoln, Harvard Medical School, and MIT have developed a bandage that delivers drugs such as antibiotics when fibres inside are heated, while Swansea University is looking to harness a combination of nanotech and 5G networks for smart bandages that monitor wound healing.

RECENT AND RELATED COVERAGE

Health tech: Researchers are working on combining sensors with off-the-shelf contact lenses for a range of medical applications.
MIT researchers have created swallowable chips that can help identify blood in the gastrointestinal tract.
Researchers at Purdue University are developing chips that could help scientists understand nerve conditions, and potentially help lay the foundations for neuroprosthetics.
Microsoft and Adaptive Biotechnologies have partnered on an ambitious immunology project that could see diseases diagnosed much faster.
A Swedish biohacker has created RFID microchips that can be implanted in someone's hand. He believes the innovation could lead to a revolution in the IoT health industry.
With the slew of self-care, fitness and sleep devices on show at CES, the health and medical industries are making big rumbles in consumer tech.

Democratic artificial intelligence will shape future technologies: Gartner


Artificial intelligence (AI) has become a key area of research and development, and while AI and machine learning algorithms begin to influence everything from our cars to our social media news feeds, the technology will soon be available to everyone.
That is if Gartner's predictions on emerging technology trends prove to be true.
On Monday, the research agency said that democratized AI will be one of the major trends which will shape our future technologies.
The research is based on the so-called "Hype Cycle," which comprises of insights from over 2,000 technologies into 35 main areas of interest and trends, with a particular focus on innovations which could give businesses a future competitive advantage.
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Gartner
Gartner says that AI technologies will be "virtually everywhere" over the next 10 years, but it will be open to the masses rather than being purely commercial.
Cloud computing, open-source projects, and the "maker" community will mold this trend, eventually "propelling AI into everyone's hands."
AI-based Platform as a Service (PaaS) solutions, autonomous driving, mobile robots, conversational AI platforms & assistants, and deep neural nets are expected to become major enterprise technologies in the future.
"Technologies representing democratized AI populate three out of five sections on the Hype Cycle, and some of them, such as deep neural nets and virtual assistants, will reach mainstream adoption in the next two to five years," said Mike Walker, research vice president at Gartner. "Other emerging technologies of that category, such as smart robots or AI PaaS, are also moving rapidly through the Hype Cycle approaching the peak and will soon have crossed it."
In addition to democratized AI, Gartner has selected four other technology trends of note.
Compartmentalized PC systems are phasing out, only to be replaced with ecosystem-supporting alternatives, which, in turn, is expected to prompt new business models based on the blockchain, digital twin technologies, IoT platforms, and knowledge graphs.


Alongside new business models, Gartner predicts an uptick in "human-centric" technologies including 4D-printing, the Internet of Things (IoT) and connected home, edge computing AI, and self-healing systems.
It is also expected that we will begin to explore the concept of biohacking with more fervor. RFID chips are already implantable, but the research agency believes that augmentation, nutrigenomics, and experimental biological experiments will also appear during the next decade.
The final trend of note is the use of ubiquitous infrastructure.
Cloud computing, a vast ecosystem of operating systems and IoT devices, data centers, and more have changed the fabric of enterprise infrastructures -- and this has paved the way for increased adoption of new technologies including 5G, carbon nanotubes, deep neural network ASICs, neuromorphic hardware and quantum computing.
"Business and technology leaders will continue to face rapidly accelerating technology innovation that will profoundly impact the way they engage with their workforce, collaborate with their partners, and create products and services for their customers," said Walker. "CIOs and technology leaders should always be scanning the market along with assessing and piloting emerging technologies to identify new business opportunities with high impact potential and strategic relevance for their business."

Global Artificial Intelligence (AI) in Agriculture Market 2018 by Manufacturers, Countries, Type and Application, Forecast to 2023

Artificial Intelligence (AI) in Agriculture Market size is being driven by the growing adoption of the robots in agriculture. Increasing consumption and rising requirement of better yield of crops are estimated to be one of the major factors that is fueling the demand of robots in agriculture. Increasing consumption motivates farmers to scale up farming operations and give rise to the requirement of automating farming operations. As the farmers are shifting more towards automation, drones and robots have become integral part of agriculture farms and are enhancing yield and improving the product quality. Since AI is the backbone of robotics, increasing adoption of robots in agriculture is estimated to drive the AI in agriculture market growth. Scope of the Report: This report studies the Artificial Intelligence (AI) in Agriculture market status and outlook of Global and major regions, from angles of players, countries, product types and end industries; this report analyzes the top players in global market, and splits the Artificial Intelligence (AI) in Agriculture market by product type and applications/end industries. United States is the largest consumption countries of Artificial Intelligence (AI) in Agriculture in the world in the past few years and it will keep leader position in the next few years. United States market took up about 42.96% the global market in 2017, while Europe was about 22.67%. USA is now the key developers of Artificial Intelligence (AI) in Agriculture; most companies are in USA. Others are in Europe, China and India. The global Artificial Intelligence (AI) in Agriculture market is valued at 240 million USD in 2017 and is expected to reach 790 million USD by the end of 2023, growing at a CAGR of 21.8% between 2017 and 2023. The Asia-Pacific will occupy for more market share in following years, especially in China, also fast growing India and Southeast Asia regions. North America, especially The United States, will still play an important role which cannot be ignored. Any changes from United States might affect the development trend of Artificial Intelligence (AI) in Agriculture. Europe also play important roles in global market, with market size of xx million USD in 2017 and will be xx million USD in 2023, with a CAGR of xx%.

Artificial Intelligence Market worth 190.61 Billion USD by 2023- Global Forecast to 2023 by Size, Share and Growth Rate

The Global Artificial Intelligence Report includes a comprehensive analysis of the present market. The report starts with the basic Global Artificial Intelligence overview and then goes into each and every detail.


The testament on the Global Artificial Intelligence Market is an in-depth section of work and is amassed by organizing both major as well as minor research. The data integrated in the report has been taken by mentioning superior-quality whitepapers, report descriptions, press releases, and by taking responses from top industry contestants. The top sectors in the market have been emphasized. These fragments have been reachable by giving information on their present and foreseen position by the end of the forecast horizon. These facts help the forthcoming players to gauge the speculation scope within the sections and sub-sections of the Global Artificial Intelligence Market.
The artificial intelligence market is expected to grow from USD 21.46 Billion in 2018 to USD 190.61 Billion by 2025, at a CAGR of 36.62% between 2018 and 2025. Major drivers for the market are growing big data, the increasing adoption of cloud-based applications and services, and increasing demand for intelligent virtual assistants. The major restraint for the market is the limited number of AI technology experts.

2018 China’s Artificial Intelligence Report


Core View
Artificial intelligence in the broad sense refers to the effect produced by the realization of human thinking through computers. It is a description and construction of an intelligent agent that can understand the surroundings and take actions; The artificial intelligence in narrow sense includes the artificial intelligence industry (including various value systems such as technology, algorithms, and applications) and artificial intelligence technologies (using machines to help, replace, or even partially surpass human to realize functions of understanding, recognition, analysis, and decision-making).
The industrial revolution brings automation to the craft industry, and machine learning automates the machine itself; The open source environment can significantly reduce the technical threshold of artificial intelligence; Visual perception gradually realizes its commercial value, and visual cognition remains to be developed.
National policy strongly supports the artificial intelligence industry, pointing out that artificial intelligence must reach the top level in the world. But it pays less attention to the moral problems and threats caused by artificial intelligence.
In the future, there will be more room for the development of complete behavioral planning or decision-making. In addition to cutting-edge algorithms, commercial barriers depend on comprehensive construction of products, services, and markets, etc.
There will be no shortage of jobs in the future, and the technological revolution will improve the overall welfare of the society. The core values of artificial intelligence are cost reduction and human wisdom preservation.
Comparison of Investment, Financing and Patents in the Field of Artificial Intelligence in China and the U.S.
According to CB Insights data, the total amount of financing for global artificial intelligence startups reached a record high of US$15.2 billion in 2017. Chinese companies and American companies accounted for 48% and 38% respectively, ranking the first and the second, respectively. In terms of patent publications, the numbers of titles or abstracts of patent publications which contain “artificial intelligence” in China increased from 328 in 2016 to 641 in 2017. The numbers in the United States increased from 108 in 2016 to 130 in 2017. However, judging from the innovation of the publications, China still lags far behind the United States.
Proportions of the Financing Amount of American And Chinese AI Startups in 2017
48% Proportion of the financing amount of Chinese companies.
38% Proportion of the financing amount of American companies.
13% Others.
2013–2017 Number of Artificial Intelligence Patent Publications in China and the United States
Knowledge Graph
Knowledge graph technology aims to describe various entity concepts and their relationships. Usually, “entity-relation-entity” form a triplet, and each entity also has its corresponding “attribute.” Large-scale knowledge graph usually contains hundreds of millions of entities, tens of billions of attributes, and hundreds of billions of relations. They are from a large amount of structured and unstructured data mining. Based on the specialized knowledge graph and the natural language understanding technology built on it, the machine can fully utilize perform the functions of reasoning and making judgment, accurately answer questions and extend the scope of intelligence.
Autonomous Driving
According to the anthropomorphic research and development concept of autonomous driving, the principle of autopilot system has five layers, which are perception-cognition -decision making-control-enforcement. It processes and integrates the information gained through sensors, get a full understanding of the overall situation, make decisions through algorithms and then generate execution instructions by the control system. In this entire process, vehicles can exchange information with the outside world (such as road facilities, other vehicles, etc.) via V2X (Vehicle to Everything) communication, help the vehicles to acquire real time information of a larger environment and to solve four problems, namely: Where am I? What is around? How will the environment change? What can I do?”.
Public Security Sector
Computer vision, speech recognition, machine learning and many other intelligent technologies can realize identification via multiple biological characteristics such as human faces, fingerprints, irises, palm prints, finger veins, voiceprints, and gait. Among them, human face, fingerprint and iris are used in more than 80% of the global biometrics market. In the actual scenes of public security, artificial intelligence technology can be used for intelligent analysis of public security big data, realize real-time monitoring, warning, study and judgment based on the knowledge network of “people, event, places, things, and organizations”, and effectively improve the cognitive, anticipation and decision-making abilities of public security. With the technological advancement of artificial intelligence and big data, the hardware deployment of high-definition online cameras and various sensors, the gradual strengthening of public security policies such as safe cities, smart cities, and Xueliang project, as well as national strategic policies related to artificial intelligence, the intelligent applications in the public security sector will start from key regions with good conditions and will reach the whole country eventually.
Development Trends of Artificial Intelligence Industry
For potential customers in a wider range of traditional industries or offline scenarios, the practical application of artificial intelligence technology often involves the transformation of hardware equipment for specific business scenarios, software integration, as well as the deployment of local computing facilities. The research and development of actual function of algorithms and technologies should be based on deep understanding of the customers’ real business scenarios. Taking market sales as an example, the increasing market demand requires more comprehensive and timely pre-sale, sales, and after-sales services. The importance of market sales is particularly prominent when there is lack of adequate understanding of the help provided by intelligent technologies, or temporary lack of perfect scientific evaluation criteria, or there is a business scene of similar technologies. The development of artificial intelligence should not only focus on the development of cutting-edge algorithms, but also pay attention to the current commercial application and market expansion. These bring more comprehensive challenges for artificial intelligence companies which relies on high-tech talents.