Modernizing Computer Vision With Deep Neural Networks

As studied earlier, computer networks are one of the most popular and well-researched automation topics over the last many years. But along with advantages and uses, computer vision has its challenges in the department of modern applications, which deep neural networks can address quickly and efficiently.

1. Network Compression

With the soaring demand for computing power and storage, it is challenging to deploy deep neural network applications. Consequently, while implementing the neural network model for computer vision, a lot of effort and work is put in to increase its precision and decrease the complexity of the model.

Impact of Deep Learning on Personalization

Machine learning-based personalization has gained traction over the years due to volume in the amount of data across sources and the velocity at which consumers and organizations generate new data. Traditional ways of personalization focused on deriving business rules using techniques like segmentation, which often did not address a customer uniquely. Recent progress in specialized hardware (read GPUs and cloud computing) and a burgeoning ML and DL toolkits enable us to develop 1:1 customer personalization which scales.

Recommender systems are beneficial to both service providers and users. They reduce transaction costs of finding and selecting items in an online shopping environment and improves customer experience. Recommendation systems have also proved to improve the decision making process and quality. In an e-commerce setting, for example, recommender systems enhance revenues, for the fact that they are effective means of selling more products. In scientific libraries, recommender systems support users by allowing them to move beyond catalog searches. Therefore, the need to use efficient and accurate recommendation techniques within a system that will provide relevant and dependable recommendations for users cannot be over-emphasized.

How to Do Deep Learning for Java

Deep in thought studying deep learning for Java.

Introduction

Some time ago, I came across this life-cycle management tool (or cloud service) called Valohai, and I was quite impressed by its user-interface and simplicity of design and layout. I had a good chat about the service at that time with one of the members of Valohai and was given a demo. Previous to that, I had written a simple pipeline using GNU Parallel, JavaScript, Python, and Bash — and another one purely using GNU Parallel and Bash.

I also thought about replacing the moving parts with ready-to-use task/workflow management tools like Jenkins X, Jenkins Pipeline, Concourse or Airflow, but due to various reasons, I did not proceed with the idea.

Simulation Testing’s Uncanny Valley Problem

No one wants to be hurt because they're inadvertently driving next to an unproven self-driving vehicle. However, the costs of validating self-driving vehicles on the roads are extraordinary. To mitigate this, most autonomous developers test their systems in simulation, that is, in virtual environments. Starsky uses limited low-fidelity simulation to gauge the effects of certain system inputs on truck behavior. Simulation helps us to learn the proper force an actuator should exert on a steering mechanism, to achieve a turn of the desired radius. The technique also helps us to model the correct amount of throttle pressure to achieve a certain acceleration. But over-reliance on simulation can actually make the system less safe. To state the issue another way, heavy dependence on testing in virtual simulations has an uncanny valley problem.

First, some context. Simulation has arisen as a method to validate self-driving software as the autonomy stack has increasingly relied on deep-learning algorithms. These algorithms are massively complex. So complex that, given the volume of data the AV sensors provide, it’s essentially impossible to discern why the systems made any particular decision. They’re black boxes whose developers don’t really understand them. (I’ve written elsewhere about the problem with deep learning.) Consequently, it’s difficult to eliminate the possibility that they’ll make a decision you don’t like.