Do you have data and wonder what it can tell you? Do you need a deeper understanding of the core ways in which machine learning can improve your business? Do you want to be able to converse with specialists about anything from regression and classification to deep learning and recommender systems? In this course, you will get hands-on experience with machine learning from a series of practical case-studies. At the end of the first course you will have studied how to predict house prices based on house-level features, analyze sentiment from user reviews, retrieve documents of interest, recommend products, and search for images.

Artificial Intelligence has revolutionized many industries in the past decade, and healthcare is no exception. In fact, the amount of data in healthcare has grown 20x in the past 7 years, causing an expected surge in the Healthcare AI market from $2.1 to $36.1 billion by 2025 at an annual growth rate of 50.4%. AI in Healthcare is transforming the way patient care is delivered, and is impacting all aspects of the medical industry, including early detection, more accurate diagnosis, advanced treatment, health monitoring, robotics, training, research and much more. In light of the worldwide COVID-19 pandemic, there has never been a better time to understand the possibilities of artificial intelligence within the healthcare industry and learn how you can make an impact to better the world's healthcare infrastructure. Artificial Intelligence has revolutionized many industries in the past decade, and healthcare is no exception.

In the last decade, the demand for artificial intelligence programmers has increased exponentially, both in Mexico and throughout the world. According to Gartner, sectors such as energy, retail, financial services, telecommunications and manufacturing, are the most predisposed to take advantage of artificial intelligence in Mexico. Precisely Donald Feinberg, research director at Gartner, specializing in the area of artificial intelligence (AI), assures that in the country this field of information technology is reaching a very important role, as important as the one it already has in the United States. However, according to the National Institute of Statistics and Geography (INEGI), in the country there are 976 thousand people trained in computing or information and communication technologies, of which 241 thousand, at least, do not have a related job to the race. For this reason, it is becoming increasingly necessary to carry out training, through which the knowledge and skills required by emerging technologies, such as artificial intelligence, are obtained, and thus be able to aspire to the jobs offered by different companies.

At each step, get practical experience by applying your skills to code exercises and projects. This program is intended for students with experience in Python, who have not yet studied Machine Learning topics.

Amazon Web Services has partnered with education technology company DeepLearning.AI to offer a new specialization to help data professionals quickly master the essentials of machine learning and efficiently deploy data science projects at scale in the AWS cloud. The three-course Practical Data Science Specialization with Amazon SageMaker, AWS' fully managed machine learning (ML) service, is available through Coursera's education platform. The new, massive open online course (MOOC) addresses a critical factor to success with ML: growing the talent pool and helping more people become ML practitioners, according to Bratin Saha, vice president of machine learning services for AWS. "At Amazon, our goal is to train every developer we hire on machine learning," said Saha, who announced the new specialization during the opening keynote address for today's virtual AWS Machine Learning Summit. "In fact, machine learning courses are now mandatory for any engineer joining Amazon, and we want to make training accessible to even more developers."

Learning how to program in Python is not always easy especially if you want to use it for Data science. Indeed, there are many of different tools that have to be learned to be able to properly use Python for Data science and machine learning and each of those tools is not always easy to learn. Then you will definitely love this course. Not only you will learn all the tools that are used for Data science but you will also improve your Python knowledge and learn to use those tools to be able to visualize your projects. This course is structured in a way that you will be able to to learn each tool separately and practice by programming in python directly with the use of those tools.

Demand for quantitative talent is growing at incredible rates. Data-driven traders are now responsible for more than 30% of all US stock trades by investors (or about $1 trillion USD worth of investments, up from 14% in 2013). This scenario represents incredible opportunity for individuals eager to apply cutting-edge technologies to trading and finance. Whether you want to pursue a new job in finance, launch yourself on the path to a quant trading career, or master the latest AI applications in trading and quantitative finance, this program will give you the opportunity to build an impressive portfolio of real-world projects. You will build financial models on real data, and work on your own trading strategies using natural language processing, recurrent neural networks, and random forests.

We investigate the generalization of the mistake-bound model to continuous real-valued single variable functions. Let $\mathcal{F}_q$ be the class of absolutely continuous functions $f: [0, 1] \rightarrow \mathbb{R}$ with $||f'||_q \le 1$, and define $opt_p(\mathcal{F}_q)$ as the best possible bound on the worst-case sum of the $p^{th}$ powers of the absolute prediction errors over any number of trials. Kimber and Long (Theoretical Computer Science, 1995) proved for $q \ge 2$ that $opt_p(\mathcal{F}_q) = 1$ when $p \ge 2$ and $opt_p(\mathcal{F}_q) = \infty$ when $p = 1$. For $1 < p < 2$ with $p = 1+\epsilon$, the only known bound was $opt_p(\mathcal{F}_{q}) = O(\epsilon^{-1})$ from the same paper. We show for all $\epsilon \in (0, 1)$ and $q \ge 2$ that $opt_{1+\epsilon}(\mathcal{F}_q) = \Theta(\epsilon^{-\frac{1}{2}})$, where the constants in the bound do not depend on $q$. We also show that $opt_{1+\epsilon}(\mathcal{F}_{\infty}) = \Theta(\epsilon^{-\frac{1}{2}})$.

Learn to detect obstacles in lidar point clouds through clustering and segmentation, apply thresholds and filters to radar data in order to accurately track objects, and augment your perception by projecting camera images into three dimensions and fusing these projections with other sensor data. Combine this sensor data with Kalman filters to perceive the world around a vehicle and track objects over time. Learn to fuse data from three of the primary sensors that robots use: lidar, camera, and radar.

In this program, students will enhance their skills by building and deploying sophisticated machine learning solutions using popular open source tools and frameworks, and gain practical experience running complex machine learning tasks using the built-in Azure labs accessible inside the Udacity classroom. In this program, students will enhance their skills by building and deploying sophisticated Machine Learning (ML) solutions using popular open source tools and frameworks and gain practical experience by using the built-in Azure labs accessible inside the Udacity classroom to run complex machine learning tasks for no additional cost.