The rapid normalization of artificial intelligence is forcing a reckoning with how much of the future is being shaped by hype rather than utility. The writers Charles Duhigg, Cal Newport, and Anna Wiener join Tyler Foggatt for a conversation about artificial intelligence and the promises, myths, and anxieties surrounding it. The discussion was recorded before a live audience at The New Yorker Festival this fall. They explore the gap between Silicon Valley's sweeping claims and what generative A.I. can actually do today; how people are using the technology for work, creativity, and emotional support; and why the tech's most immediate political consequences may be the hardest to grapple with. " The Biggest Threat to the 2026 Economy Is Still Donald Trump," by John Cassidy What Can We Do Instead?," by Jay Caspian Kang When an Ivy League school turned against a student .

Variational autoencoder (VAE) is a deep generative model for unsupervised learning, allowing to encode observations into the meaningful latent space. VAE is prone to catastrophic forgetting when tasks arrive sequentially, and only the data for the current one is available. We address this problem of continual learning for VAEs. It is known that the choice of the prior distribution over the latent space is crucial for VAE in the non-continual setting. We argue that it can also be helpful to avoid catastrophic forgetting.

Recently, there has been extensive research interest in training deep networks to denoise images without clean reference.However, the representative approaches such as Noise2Noise, Noise2Void, Stein's unbiased risk estimator (SURE), etc. seem to differ from one another and it is difficult to find the coherent mathematical structure. To address this, here we present a novel approach, called Noise2Score, which reveals a missing link in order to unite these seemingly different approaches.Specifically, we show that image denoising problems without clean images can be addressed by finding the mode of the posterior distribution and that the Tweedie's formula offers an explicit solution through the score function (i.e. the gradient of loglikelihood). Our method then uses the recent finding that the score function can be stably estimated from the noisy images using the amortized residual denoising autoencoder, the method of which is closely related to Noise2Noise or Nose2Void. Our Noise2Score approach is so universal that the same network training can be used to remove noises from images that are corrupted by any exponential family distributions and noise parameters. Using extensive experiments with Gaussian, Poisson, and Gamma noises, we show that Noise2Score significantly outperforms the state-of-the-art self-supervised denoising methods in the benchmark data set such as (C)BSD68, Set12, and Kodak, etc.

We present a novel approach for test-time adaptation via online self-training, consisting of two components. First, we introduce a statistical framework that detects distribution shifts in the classifier's entropy values obtained on a stream of unlabeled samples. Second, we devise an online adaptation mechanism that utilizes the evidence of distribution shifts captured by the detection tool to dynamically update the classifier's parameters. The resulting adaptation process drives the distribution of test entropy values obtained from the self-trained classifier to match those of the source domain, building invariance to distribution shifts. This approach departs from the conventional self-training method, which focuses on minimizing the classifier's entropy.

The number of days people spend in the office is not going to be a significant factor in figuring out the workplace dynamics or productivity. The idea that everything's going to be exactly the same as it used to be except we'll go to the office two days a week instead of five days a week really misses out on two fronts. From the employer side, you just won't have access to the broad base of talent that you have if you're more flexible. From the other side, [let's say] you have two competing job offers, and they're similar in terms of the interest of the work, the compensation, the prestige, and your belief in the company's mission or any other factors. One role says you have to be in an office five days a week and the other one says you can be in the office as much as you want to or need to.

While the use of machine learning (ML) in production started near the turn of the century, it's taken roughly 20 years for the practice to become mainstream throughout industry. With this report, you'll learn how more than 11,000 data specialists responded to a recent O'Reilly survey about their organization's approach--or intended approach--to machine learning. Data scientists, machine learning engineers, and deep learning engineers throughout the world answered detailed questions about their organization's level of ML adoption. About half of the respondents work for enterprises in the early stages of exploring ML, while the rest have moderate or extensive experience deploying ML models to production.

The promise of AI and other cognitive technologies is enticing companies to take on aggressive new initiatives. Authors Davenport and Ronanki share how to apply cognitive technologies from robotics to deep learning in bold new ways, based on their study of 152 cognitive projects and the results of Deloitte's 2017 state of cognitive survey. Taking an incremental approach--rather than a transformative approach--helps organizations avoid potential setbacks. In fact, "low-hanging fruit" projects that streamline business processes and augment, rather than replace, human capabilities are much more likely to be successful than the most highly ambitious projects. Here, you'll see how organizations are improving products and creating new ones, making better decisions, and freeing up workers to be more creative using cognitive technologies.

One of the biggest confusions about "Artificial Intelligence" is that it is a very vague term. That's because Artificial Intelligence or AI is a term that was coined way back in 1955 with extreme hubris: We propose that a 2 month, 10 man study of artificial intelligence be carried out during the summer of 1956 at Dartmouth College in Hanover, New Hampshire. The study is to proceed on the basis of the conjecture that every aspect of learning or any other feature of intelligence can in principle be so precisely described that a machine can be made to simulate it. An attempt will be made to find how to make machines use language, form abstractions, and concepts, solve kinds of problems now reserved for humans, and improve themselves. AI is over half a century old and carries with it too much baggage.

Robotic soccer is an ideal task to demonstrate new techniques and explore new problems. Moreover, problems and solutions can easily be communicated because soccer is a well-known game. Our intention in building a robotic soccer team and participating in RoboCup-98 was, first, to demonstrate the usefulness of the self-localization methods we have developed. Second, we wanted to show that playing soccer based on an explicit world model is much more effective than other methods. Third, we intended to explore the problem of building and maintaining a global team world model.

The workshop focused on possible solutions to both technical and organizational challenges to mobility and manipulation research. This article presents the highlights of that discussion along with the content of the accompanying exhibits. Fortunately, these applications can be successful through simple repetitive behaviors or remote human operation. However, useful autonomy needed for operation in general situations requires advanced mobility and manipulation. Opening doors, retrieving specific items, and maneuvering in cluttered environments are required for useful deployment in anything but the most controlled environment. The mobile manipulation skills necessary to perform tasks in arbitrary environments may not result from current approaches to robotics and AI. Moving toward true robot autonomy may require new paradigms, hardware, and ways of thinking. The goal of the AAAI 2008 Workshop on Mobility and Manipulation was not only to demonstrate current research successes to the AAAI community but also to road-map future mobility and manipulation challenges that create synergies between artificial intelligence and robotics. The half-day workshop included both a session on the exhibits and a panel discussion. The panel consisted of five prominent researchers who led a discussion of future directions for mobility and manipulation research.