Education
How to get Google to fund your tech project
Google is promising more than $4 million in grant funding for Australian projects creating technology that will help with crisis response, preparedness and resilience for crises to come. According to a blog post by Google Australia managing director Mel Silva, the tech giant has already been working with the National Bushfire Recovery Agency to identify areas where technology can play a role in solving problems for communities. The new crisis fund will give a cash boost to projects creating innovative technology, said Silva, with a special focus on artificial intelligence technology. "Through the new Crisis Response and Recovery Fund we will work with the Australian Government, academia, non-profits and community groups to find and support projects that use emerging technology, particularly AI (Artificial Intelligence) to help with crisis response, preparedness and resilience," she said. Projects will be assessed and chosen by a panel of technology experts, Silva said.
AI and Chatbots in Education: What Does The FutureHold?
The increasing use of technology in everyday life is changing the way students learn and absorb information. It is because of artificial intelligence that the educators today are able to provide a personalized learning environment to the students. The researchers have developed systems that can automatically detect whether students are able to understand the study material or not. Chatbots or artificially intelligent conversational tools, built to improve student interaction and collaboration, are acting as a game changer in the innovative ed-tech world. This article discusses 7 ways in which artificial intelligence and chatbots are influencing the education.
New learning algorithm should significantly expand the possible applications of AI
The high energy consumption of artificial neural networks' learning activities is one of the biggest hurdles for the broad use of Artificial Intelligence (AI), especially in mobile applications. One approach to solving this problem can be gleaned from knowledge about the human brain. Although it has the computing power of a supercomputer, it only needs 20 watts, which is only a millionth of the energy of a supercomputer. One of the reasons for this is the efficient transfer of information between neurons in the brain. Neurons send short electrical impulses (spikes) to other neurons--but, to save energy, only as often as absolutely necessary.
Deep Learning Prerequisites: Logistic Regression in Python
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The Data Science Course 2020: Complete Data Science Bootcamp
Online Courses Udemy - Complete Data Science Training: Mathematics, Statistics, Python, Advanced Statistics in Python, Machine & Deep Learning BESTSELLER Created by 365 Careers, 365 Careers Team English [Auto-generated], French [Auto-generated], 6 more Students also bought Statistics for Data Science and Business Analysis Machine Learning A-Z: Hands-On Python & R In Data Science Excel for Data Analysts Data Science A-Z: Real-Life Data Science Exercises Included Intro to Data Science: Your Step-by-Step Guide To Starting Preview this course GET COUPON CODE Description The Problem Data scientist is one of the best suited professions to thrive this century. It is digital, programming-oriented, and analytical. Therefore, it comes as no surprise that the demand for data scientists has been surging in the job marketplace. However, supply has been very limited. It is difficult to acquire the skills necessary to be hired as a data scientist.
Technology
Check out their product page … link Get the Chemometrics and Spectroscopy News in real time on Twitter @ CalibModel and follow us. Near-Infrared Spectroscopy (NIRS) "Non-invasive method to identify the type of green tea inside teabag using NIR spectroscopy, support vector machines and Bayesian optimization" LINK "Online milk composition analysis with an on-farm near-infrared sensor" LINK "Anonymous fecal sampling and NIRS studies of diet quality: Problem or opportunity?" LINK "Organic and Symbiotic Fertilization of Tomato Plants Monitored by Litterbag-NIRS and Foliar-NIRS Rapid Spectroscopic Methods Running title: Litterbag-NIRS and Foliar-NIRS model in symbiotic tomato" LINK "Determination of crude protein and metabolized energy with near infrared reflectance spectroscopy (NIRS) in ruminant mixed feeds" LINK Infrared Spectroscopy (IR) and Near-Infrared Spectroscopy (NIR) "Near Infrared Spectroscopy as an efficient tool for the Qualitative and Quantitative Determination of Sugar ...
Toward Machine-Guided, Human-Initiated Explanatory Interactive Learning
Popordanoska, Teodora, Kumar, Mohit, Teso, Stefano
Recent work has demonstrated the promise of combining local explanations with active learning for understanding and supervising black-box models. Here we show that, under specific conditions, these algorithms may misrepresent the quality of the model being learned. The reason is that the machine illustrates its beliefs by predicting and explaining the labels of the query instances: if the machine is unaware of its own mistakes, it may end up choosing queries on which it performs artificially well. This biases the "narrative" presented by the machine to the user. We address this narrative bias by introducing explanatory guided learning, a novel interactive learning strategy in which: i) the supervisor is in charge of choosing the query instances, while ii) the machine uses global explanations to illustrate its overall behavior and to guide the supervisor toward choosing challenging, informative instances. This strategy retains the key advantages of explanatory interaction while avoiding narrative bias and compares favorably to active learning in terms of sample complexity. An initial empirical evaluation with a clustering-based prototype highlights the promise of our approach.
Ideas for Improving the Field of Machine Learning: Summarizing Discussion from the NeurIPS 2019 Retrospectives Workshop
Sodhani, Shagun, Jaiswal, Mayoore S., Baker, Lauren, Sinha, Koustuv, Shneider, Carl, Henderson, Peter, Lehman, Joel, Lowe, Ryan
This report documents ideas for improving the field of machine learning, which arose from discussions at the ML Retrospectives workshop at NeurIPS 2019. The goal of the report is to disseminate these ideas more broadly, and in turn encourage continuing discussion about how the field could improve along these axes. We focus on topics that were most discussed at the workshop: incentives for encouraging alternate forms of scholarship, restructuring the review process, participation from academia and industry, and how we might better train computer scientists as scientists. Videos from the workshop can be accessed at Lowe et al. (2019).
Fairwashing Explanations with Off-Manifold Detergent
Anders, Christopher J., Pasliev, Plamen, Dombrowski, Ann-Kathrin, Müller, Klaus-Robert, Kessel, Pan
Explanation methods promise to make black-box classifiers more transparent. As a result, it is hoped that they can act as proof for a sensible, fair and trustworthy decision-making process of the algorithm and thereby increase its acceptance by the end-users. In this paper, we show both theoretically and experimentally that these hopes are presently unfounded. Specifically, we show that, for any classifier $g$, one can always construct another classifier $\tilde{g}$ which has the same behavior on the data (same train, validation, and test error) but has arbitrarily manipulated explanation maps. We derive this statement theoretically using differential geometry and demonstrate it experimentally for various explanation methods, architectures, and datasets. Motivated by our theoretical insights, we then propose a modification of existing explanation methods which makes them significantly more robust.
Robust Causal Inference Under Covariate Shift via Worst-Case Subpopulation Treatment Effects
Jeong, Sookyo, Namkoong, Hongseok
We propose the worst-case treatment effect (WTE) across all subpopulations of a given size, a conservative notion of topline treatment effect. Compared to the average treatment effect (ATE), whose validity relies on the covariate distribution of collected data, WTE is robust to unanticipated covariate shifts, and positive findings guarantee uniformly valid treatment effects over subpopulations. We develop a semiparametrically efficient estimator for the WTE, leveraging machine learning-based estimates of the heterogeneous treatment effect and propensity score. By virtue of satisfying a key (Neyman) orthogonality property, our estimator enjoys central limit behavior---oracle rates with true nuisance parameters---even when estimates of nuisance parameters converge at slower rates. For both randomized trials and observational studies, we establish a semiparametric efficiency bound, proving that our estimator achieves the optimal asymptotic variance. On real datasets where robustness to covariate shift is of core concern, we illustrate the non-robustness of ATE under even mild distributional shift, and demonstrate that the WTE guards against brittle findings that are invalidated by unanticipated covariate shifts.