Google AI Projects

Google AI Projects: Let’s Draw Back the Curtain and Take a Peek

Artificial Intelligence is a big deal in today’s IT world. There are two significant movers and shakers that show up often in current AI-related news — and that’s IBM and Google. While we cover IBM’s efforts here, we’re now going to dive into what Google is up to in the world of AI. The affinity between Google and Artificial Intelligence is appropriate.

After all, Google is everywhere, and Artificial Intelligence is making inroads into every facet of our lives. It follows that two such popular and influential forces would naturally work together in some capacity. Let’s begin by looking at what Google AI is all about, reviewing Google’s AI Advancements, and then moving on to the AI projects Google is currently working on

In 2007, Google put the wheels of mobile market domination in motion by releasing an open-source operating system for phones. It was called Android. You may have heard of it. In 2019, Google began its campaign to dominate Artificial Intelligence by releasing TensorFlow, an open-source machine learning platform.

TensorFlow consists of libraries of files that help computer scientists and researchers build systems that break down data such as voice recordings or images and allow computers to make decisions based on that information. Currently, over 50 Google products rely on TensorFlow to turn deep learning into a tool.

Google has spent the past several years working on a vast Artificial Intelligence platform. However, they prefer the term “machine intelligence” since the phrase “Artificial Intelligence” has been around so long that it carries too many associations. Also, Google is striving to create real intelligence — it just happens to be for machines!

Google has long relied on Artificial Intelligence-related resources to power, improve, and enhance its core products such as the Google search engine, voice search, and its photos app. By releasing TensorFlow free to the public, Google gains increased exposure and benefits from the work done by researchers using the open-source system.

Artificial Intelligence drives effective search engines, and that’s what Google is all about.

Over the last year, Google Research has worked on AI projects covering many relevant topics, such as COVID-19 forecasting, weather and climate change, robotics, medical diagnostics, and natural language understanding.

Research in the future includes:

1. AI + Writing

Google’s Creative Lab in Sydney, Australia, is teaming up with the Digital Writers’ Festival team and a group of industry professionals (e.g., developers, writers, engineers) to see if we can use machine learning to inspire writers and enrich their process. Google’s Creative Labs has also done similar projects in other aspects of the arts, such as music and drawing.

2. Contactless Sleep Sensing

Good sleep is an integral part of our well-being, and Google is researching and studying sleep patterns and nighttime wellness. Sleep Sensing in Nest Hub uses radar-based sleep tracking, paired with an algorithm for snore and cough detection. This new development helps sleepers to understand how much sleep they’re getting and its quality, all while conveniently preserving their privacy. In an age where healthcare is a significant concern, this AI project empowers people and helps them practice self-care, possibly mitigating potential health issues.

3. Machine Learning for Computer Architecture

No matter how many new advances we see in computer hardware, there is always room for improvement. Machine learning requires high-performance systems, and Google is researching custom accelerators such as the Edge TPUs and Google TPUs to boost available computing power. This AI project will help build more efficient hardware, give people a better grasp of accelerator design space, and unlock new capabilities.

As both Artificial Intelligence and Machine Learning keep growing in complexity and influence, we will need hardware to keep pace with these escalating demands. This need means developing more compact and efficient hardware while still delivering increasing amounts of processing power.

4. Lower Speech Processing Bitrate Code

If there’s anything the past year’s COVID-inspired lockdowns and remote working has taught us, it’s the importance of a reliable real-time communication framework. As such, Google researchers are developing new audio and codecs to provide greater quality and minimize latency in real-time communication while using less data. A codec is a compression technique that decodes and encodes signals for storage or transmission. Codecs permit bandwidth-hungry applications to send data efficiently while guaranteeing high-quality communication anytime, anywhere.

This research will eventually help billions of users worldwide stay connected with high-quality audio and video, even on lower bandwidth connections. That way, even people who can’t afford the faster networks can still stay connected and conduct business without impediment.

5. Data Mining and Modeling

The rise and proliferation of big data have presented ever-growing challenges in disciplines like data mining and modeling. There is far too much information out there, and today’s businesses need better ways to handle the influx. Google Research is looking into creating more efficient algorithms, developing new machine-learning approaches, or designing better-privacy-preserving classification methods. Google’s continuing research into better data mining will help analysts work with the huge datasets created by both big data and the ever-growing Internet of Things. This research affects a wide swath of Google products and services and, by extension, can benefit other businesses and organizations.

6. TensorFlow

Google created the open-source machine learning package known as TensorFlow. It may be used on various tasks to train deep learning models and produce predictions. It may be used for a range of applications because it is made to be adaptable and scalable. TensorFlow’s library of pre-trained models may be utilized for various applications, offering strong tools for creating, training, and deploying deep learning models. Its usage of dataflow graphs also facilitates model visualization and debugging.

7. AdaNet

AdaNet is a simple TensorFlow-based framework for quickly and automatically developing high-quality models. AdaNet is created to be simple, effective, and extendable and draws on recent developments in AutoML. It can train various models, including gradient-boosted trees, decision trees, and deep neural networks, and can also be used to build ensembles of these models. AdaNet also uses regularisation strategies to guarantee the caliber of the models it generates.

8. Dopamine

Dopamine is a framework built on TensorFlow that lets users try out different reinforcement learning algorithms. You can look into how reinforcement learning algorithms work in a safe place where you can try out different ways of doing things. Dopamine is great for both beginners and experts who want to learn more about reinforcement learning algorithms and use them to study and build machine learning and AI systems.

Dopamine is a neurotransmitter that plays an important role in many neurological processes, such as learning, memory, motivation, pleasure, and reward. Google has been researching the role of dopamine in machine learning and artificial intelligence to understand how dopamine can be used to train models more efficiently and accurately. To this end, Google created the Dopamine framework, an open-source research framework designed to help researchers quickly prototype reinforcement learning algorithms.

The framework uses TensorFlow and provides flexibility, stability, and reproducibility for new and experienced RL researchers. Additionally, Google has released a series of papers exploring the use of dopamine in machine learning, such as “Dopamine: A Research Framework for Deep Reinforcement Learning” and “Dopamine: A Research Framework for Fast Prototyping of Reinforcement Learning Algorithms.”

9. Bard

Google Bard, the talk of the town, has the ultimate goal is to combine the wide range of human understanding with the sophistication, originality, and power of large-scale linguistic models. It uses data collected from the internet to provide answers that are both current and accurate. You can use Bard as a way to express yourself creatively and as a springboard for exploration.

Google created the chatbot Bard to compete with ChatGPT. It is built on the Dopamine Framework, an open-source research framework created to aid in the rapid prototyping of reinforcement learning algorithms by researchers. Bard is created to be able to hold conversations that seem genuine and respond.

10. Deepmind Lab

DeepMind Lab is a three-dimensional platform that lets you use deep reinforcement learning algorithms to study and build machine learning and AI systems. The simple API of DeepMind Lab enables you to try out different AI designs and explore their capabilities. There are also puzzles on the platform that help with deep reinforcement learning. This makes it great for both beginners and experts.

The Google DeepMind division established the artificial intelligence research environment called DeepMind Lab. It is a platform similar to a 3D video game designed to educate AI agents in challenging 3D settings. The Quake III Arena gaming engine, on which DeepMind Lab is built, has been used to mimic a variety of 3D world settings, including traversing a labyrinth, a 3D map, and piloting an airplane. AI agents have been trained to perform at superhuman levels in many activities using DeepMind Lab, including 3D navigation, 3D robotics, and 3D deep learning.

11. Bullet Physics

Bullet Physics is an SDK that focuses on body dynamics, collisions, and interactions between rigid and soft bodies. It is written in C++ and provides a wide range of features and tools for game development, robotic simulation, and visual effects. The SDK also has by bullet, a Python module that uses machine learning, physical simulations, and robotics.

Designed to simulate accurate physical interactions in 3D settings, Bullet Physics is used extensively in the video gaming industry and has also been used in other fields, such as robotic simulation and medical visualization. Rigid body dynamics, soft body dynamics, and discrete collision detection may all be simulated via Bullet Physics. It is created in C++ and works with many different operating systems, including Windows, Mac, Linux, Android, and iOS.

12. Magenta

Magenta is a Google Brain research project examining how machine learning is used in producing art and music. TensorFlow, a Google-developed open-source machine learning package, forms the project’s foundation. Magenta has created several tools and models to enable people to compose music using machine learning, including plugins, datasets, and apps. In addition, Magenta has made several courses and materials available to teach people about machine learning as it relates to producing music and art.

13. Kuberflow

Kuberflow is a set of tools for Kubernetes that helps make it easier to deploy machine learning workflows. It lets you use Kubernetes to deploy open-source machine learning systems that are also very good. You can also add Jupyter Notebooks and TensorFlow training jobs to your workflow with Kuberflow.

Google created the open-source machine learning platform to make it simple for developers to maintain, scale, and deploy machine learning models on the cloud. An easy-to-use interface for deploying models to production is offered by Kuberflow, together with several tools for monitoring, debugging, and controlling ML pipelines. Additionally, Kuberflow makes it simple to deliver models to Kubernetes clusters, enabling simple scaling and automated model deployment.

14. Google Dialog Flow

Google created a conversational AI platform called Google Dialogflow. It lets programmers to create chatbots and other conversational user interfaces for websites, mobile apps, and other messaging services. Google’s natural language processing engine powers Dialogflow, which offers a simple graphical interface for creating conversational bots. Creating automated dialogues, offering customer service, and assisting customers in interacting with apps are all possible using Dialogflow.

15. DeepVariant

Variant calling, the process of finding genetic variations from sequencing data, is a deep learning-based technique called DeepVariant. Google’s DeepVariant uses convolutional neural networks to discover variations from sequencing data. It has been demonstrated that it outperforms other well-known variant callers and can be used to precisely call variants from whole-genome, whole-exome, or focused sequencing data. Finding disease-causing variations with DeepVariant is a crucial first step in diagnosing genetic illnesses.

16. MentorNet

MentorNet is a novel technique for learning another neural network to supervise the training of the base deep networks, called StudentNet. This technique is proposed to overcome the overfitting of corrupted labels, as recent deep networks are capable of memorizing the entire dataset even when the labels are completely random.

Google created MentorNet, an AI-based instructional aid, to aid students in grasping a topic better by giving them automatic feedback. MentorNet analyses student responses using natural language processing technology and offers comments at the sentence, paragraph, and essay levels. Additionally, depending on each student’s unique skills and shortcomings, it offers individualized advice and criticism. Math, physics, and language arts are just a few topics students may use MentorNet to their advantage.

17. SLING

Google created the SLING natural language understanding engine. It interprets natural language queries and is a component of Google’s set of tools for natural language understanding. The recurrent neural network-based system SLING can parse difficult questions and comprehend the context of a discussion. The conversational interface language SLING is used by Google’s voice search products and may be used to create chatbots.

SLING is a Google AI project that teaches computers to read and understand Wikipedia articles in many different languages. It does this to help complete knowledge bases, such as by adding facts from Wikipedia and other sources to the Wikidata knowledge base. Frame semantics is used by the project as a way to represent both knowledge and annotations on documents.

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